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Abstract
In this paper, we propose a stable two-sided matching model to solve the problem of matching multi-skilled workers with operation units in the hybrid rotating seru production system (HRSPS). Firstly, we present the definitions of two-sided matching between multi-skilled workers and operation units in the HRSPS. Secondly, the preference degree is quantified according to the preference information of multi-skilled workers and operation units. Thirdly, we determine the constraint of the stability. Fourthly, we construct a multi-objective programming model to obtain the stable two-sided matching scheme for multi-skilled workers and operation units. To solve the model more effectively, an improved multi-objective particle swarm optimization algorithm (IMOPSO) is designed in this paper. Finally, we analyze the influence of the constraint of the stability on the matching schemes, and compare the effectiveness of different algorithms. The influence of the number of the processes that multi-skilled workers have the abilities to operate and the processes that preferred most by multi-skilled workers on the matching schemes is analyzed.
Keywords
Stable two-sided matching
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HRSPS
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multi-skilled workers
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multi-objective programming
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IMOPSO
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Yanping Jiang, Kunyuan Huang, Mengyang Xu, Tingwen Zheng.
Stable Two-sided Matching Model for Multi-skilled Workers and Operation Units in the Hybrid Rotating Seru Production System.
Journal of Systems Science and Systems Engineering 1-30 DOI:10.1007/s11518-026-5760-6
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