Introducation:
Breakthroughs have been made in the development of complex aerospace products in China. For instance, C919 large aircraft is accelerating into a new stage of production capacity ramp-up. Aerospace manufacturing systems require large-scale intelligent equipment and efficient human collaboration, where even minor deviations in any process step can substantially affect overall performance. Additionally, the key quality characteristics, critical process parameters, and their interdependencies remain unclear, which severely restricts processing accuracy, manufacturing quality, and production efficiency. Traditional modeling and analysis methods for manufacturing systems often rely on data-driven or probabilistic models. While these methods have shown utility, challenges such as limited data reuse, low model interpretability, and insufficient practical application hinder their ability to accurately capture the underlying mechanisms of aerospace manufacturing systems.
Causal inference represents a more advanced data analysis approach. Its objective is to establish causal relationships and has been widely applied in various fields. From the perspective of causal science, in the absence of precise models for aerospace manufacturing systems, accurately identifying causal relationships among system variables from data to reflect the operational laws and evolution mechanisms of manufacturing processes is a fundamental scientific issue.
Moreover, smart manufacturing in aerospace focuses on evolving production processes to enhance efficiency and mitigate risks. Digital twins, by creating virtual replicas of physical systems, offer substantial benefits, including accelerated development, predictive failure diagnostics, and reduced maintenance costs. However, realizing these benefits at scale requires a structured, integrated approach that combines data, artificial intelligence, and digital twins to create closed-loop control systems.
Therefore, this special session focuses on causality analysis and digital twin towards aerospace manufacturing systems. The topics include, but will not be limited to the following:
High-fidelity digital twin modeling of aerospace manufacturing systems
Data-driven causal analysis for aerospace manufacturing systems
Process intelligent optimization for aerospace manufacturing systems
Quality consistency control of aerospace manufacturing systems
Human-machine collaboration in aerospace manufacturing systems
Artificial intelligence decision-making in aerospace manufacturing systems
Organizers:
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Lilan Liu, Shanghai University, China |
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Yan-Ning Sun, Shanghai University, China
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Changchun Liu, Nanjing University of Aeronautics and Astronautics, China
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Zenggui Gao, Shanghai University, China |
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Qinge Xiao, Shenzhen Institute of Advanced Technology, Chinese Academy of Sciences, China |
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Wei Qin, Shanghai Jiao Tong University, China
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Please submit your manuscript via Online Submission System: https://easychair.org/my/conference?conf=meae2025
Please choose Special Session: Causality Analysis and Digital Twin towards Aerospace Manufacturing Systems
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