Solving a bi-objective flexible flow shop problem with transporter preventive maintenance planning and limited buffers by NSGA-II and MOPSO

Q4 Mathematics
Meysam Kazemi Esfeh, A. Shojaei, H. Javanshir, K. K. Damghani
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Abstract

This study deals with a bi-objective flexible flow shop problem (BOFFSP) with transportation times and preventive maintenance (PM) on transporters via considering limited buffers. The PM actions on transporters are a missing part of the literature of the flexible flow shop problem (FFSP) which before the breakdown occurs, each transporter at each stage is stopped and the PM action is performed on it. The capacity of each intermediate buffer is limited and each job has to wait in the intermediate buffers. By including all these features in the proposed BOFFSP, not only processing times affect the objective functions, but also, the transportation times of jobs, the waiting time of jobs in the intermediate buffers, and availability of transporters in the system are considered in the model and make it a sample of a real-world FFSP. The presented BOFFSP has simultaneously minimized the total completion time and the unavailability of the system. As the problem is NP-hard, a non-dominated sorting genetic algorithm II (NSGA-II) and a multi-objective particle swarm optimization (MOPSO) is proposed to solve the model for large size problems. The experimental results show that the proposed MOPSO relatively outperforms the presented NSGA-II in terms of five different metrics considered to compare their performance. Afterwards, two one-way ANOVA tests are performed. It can be observed MOPSO achieves relatively better results than NSGA-II. Finally, sensitivity analysis is conducted to investigate the sensitivity of the objective functions to the number of jobs and their transportation time at each stage.
利用NSGA-II和MOPSO求解具有运输工具预防性维修计划和有限缓冲的双目标柔性流水车间问题
考虑有限缓冲,研究了具有运输时间和运输工具预防性维修的双目标柔性流车间问题。在柔性流水车间问题(FFSP)的文献中,转运体上的PM动作是一个缺失的部分,在故障发生之前,每个转运体在每个阶段都被停止,PM动作对其进行。每个中间缓冲区的容量是有限的,每个作业都必须在中间缓冲区中等待。该模型不仅考虑了处理时间对目标函数的影响,而且考虑了作业的传输时间、作业在中间缓冲区中的等待时间和系统中运输工具的可用性,使其成为现实世界FFSP的一个样本。所提出的BOFFSP同时最小化了总完工时间和系统的不可用性。针对大尺度问题的NP-hard问题,提出了非支配排序遗传算法(NSGA-II)和多目标粒子群优化(MOPSO)来求解该模型。实验结果表明,在所考虑的5个不同指标上,本文提出的MOPSO相对优于NSGA-II。之后,进行了两次单因素方差分析。可以看出,MOPSO的效果相对于NSGA-II更好。最后,进行敏感性分析,考察目标函数对各阶段工作岗位数量及其运输时间的敏感性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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