A Self-Learning Memetic Algorithm for Human-Robot Collaboration Scheduling in Energy-Efficient Distributed Mixed Fuzzy Welding Shop

IF 6.4 2区 计算机科学 Q1 AUTOMATION & CONTROL SYSTEMS IEEE Transactions on Automation Science and Engineering Pub Date : 2024-08-30 DOI:10.1109/TASE.2024.3448435
Fei Yu;Chao Lu;Lvjiang Yin;Biao Zhang
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Abstract

Due to the impact of economic globalization, distributed welding shop has become prevalent in real-world manufacturing systems. Moreover, focusing on human-centric, sustainable and resilient industry, Industry 5.0 puts more emphasis on human-robot collaboration (HRC) for its merit in promoting system flexibility and adaptability. However, owing to the instability of human performance, it becomes necessary to employ fuzzy processing time to simulate practical human production. In the context of Industry 5.0, HRC scheduling in distributed mixed fuzzy welding shop is worth exploring, but no related research on this problem is reported. Thus, to address this research gap, this paper investigates a human-robot collaboration energy-efficient distributed mixed fuzzy welding shop scheduling problem (EDMFWSP-HRC), aiming to minimize makespan and total energy consumption (TEC). To solve this issue, a self-learning memetic algorithm (SLMA) is proposed. In SLMA, a hybrid initialization is designed to yield a high-quality initial population. A genetic operator is proposed to improve the exploration capability. A self-learning variable neighborhood search (SLVNS), which hybridizes Q-learning and VNS, is developed to enhance the exploitation capability. A resource adjustment strategy is presented to further optimize TEC. Additionally, to validate the effectiveness of the proposed SLMA, extensive experimental comparisons with 5 other optimization algorithms are conducted. Experimental results illustrate that SLMA outperforms its competitors. Note to Practitioners—Owing to the widespread presence in manufacturing systems, distributed welding shop has attracted considerable attention in both industry and academia. In the context of Industry 5.0, the incorporation of human-robot collaboration (HRC) scheduling in distributed welding shop can promote system productivity and flexibility. Meanwhile, due to the instability of human performance, employing fuzzy processing time to simulate human production more aligns with the practical manufacturing scenario. Thus, this paper investigates a human-robot collaboration energy-efficient distributed mixed fuzzy welding shop scheduling problem (EDMFWSP-HRC). This problem model can be utilized in many welding manufacturing enterprises with HRC production mode. To solve this problem, we design a self-learning memetic algorithm (SLMA) to minimize both makespan and total energy consumption (TEC). The design of all components in SLMA is based on the characteristics of problem. The SLMA can offer the low-energy and high-efficiency schedules for practitioners. Experimental results verify the effectiveness of the proposed SLMA.
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高能效分布式混合模糊焊接车间人机协作调度的自学习记忆算法
由于经济全球化的影响,分布式焊接车间在现实世界的制造系统中越来越普遍。此外,工业5.0着眼于以人为中心、可持续和弹性的工业,更强调人机协作(HRC),以提高系统的灵活性和适应性。然而,由于人类行为的不稳定性,有必要采用模糊处理时间来模拟实际的人类生产。在工业5.0背景下,分布式混合模糊焊接车间的HRC调度问题值得探讨,但目前尚无相关研究报道。因此,为了解决这一研究空白,本文研究了人机协作节能分布式混合模糊焊接车间调度问题(EDMFWSP-HRC),以最小化完工时间和总能耗(TEC)为目标。为了解决这一问题,提出了一种自学习模因算法(SLMA)。在SLMA中,混合初始化被设计为产生高质量的初始种群。为了提高勘探能力,提出了一种遗传算子。将q -学习和自学习变量邻域搜索相结合,提出了一种自学习变量邻域搜索方法。提出了进一步优化TEC的资源调整策略。此外,为了验证所提出的SLMA的有效性,与其他5种优化算法进行了广泛的实验比较。实验结果表明,该算法优于同类算法。从业人员注意:由于在制造系统中的广泛存在,分布式焊接车间在工业界和学术界都引起了相当大的关注。在工业5.0的背景下,在分布式焊接车间中引入人机协作(HRC)调度可以提高系统的生产率和灵活性。同时,由于人类行为的不稳定性,采用模糊处理时间来模拟人类生产更符合实际制造场景。为此,本文研究了人机协作节能分布式混合模糊焊接车间调度问题(EDMFWSP-HRC)。该问题模型可应用于许多采用HRC生产模式的焊接制造企业。为了解决这个问题,我们设计了一个自学习模因算法(SLMA)来最小化完工时间和总能耗(TEC)。SLMA中所有组件的设计都是基于问题的特点。SLMA可以为从业者提供低能耗和高效率的时间表。实验结果验证了该方法的有效性。
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来源期刊
IEEE Transactions on Automation Science and Engineering
IEEE Transactions on Automation Science and Engineering 工程技术-自动化与控制系统
CiteScore
12.50
自引率
14.30%
发文量
404
审稿时长
3.0 months
期刊介绍: The IEEE Transactions on Automation Science and Engineering (T-ASE) publishes fundamental papers on Automation, emphasizing scientific results that advance efficiency, quality, productivity, and reliability. T-ASE encourages interdisciplinary approaches from computer science, control systems, electrical engineering, mathematics, mechanical engineering, operations research, and other fields. T-ASE welcomes results relevant to industries such as agriculture, biotechnology, healthcare, home automation, maintenance, manufacturing, pharmaceuticals, retail, security, service, supply chains, and transportation. T-ASE addresses a research community willing to integrate knowledge across disciplines and industries. For this purpose, each paper includes a Note to Practitioners that summarizes how its results can be applied or how they might be extended to apply in practice.
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