Editorial: Life cycle engineering in the era of Industry 4.0

Amit Jain, Sandeep Kumar, Shubham Tayal
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Abstract

In today’s sustainability debate, industries are working to modernise their life cycle engineering strategies. Identifying a sustainable competitive edge in the era of Industry 4.0 is the most critical problem. Consequently, researchers and industry experts worldwide have optimised product life cycle by integrating machine learning, modern computing technologies, information management, and other multifaceted technologies, viz., semantic interoperability. Nevertheless, there are gaps between life cycle engineering and evolving Industry 4.0 technologies. Therefore, it is crucial to optimise the product life cycle via. digitalisation, innovation, resilience, and sustainability. This will allow for more value throughout the whole product’s life cycle design and resource planning to environmentally friendly production, unrestricted operational availability, and full recycling or reusability. In light of this, this Research Topic aims to assemble articles highlighting innovations in life cycle engineering motivated by Industry 4.0. Three research articles and one review article are among the papers on this Research Topic that have been published. A sound maintenance plan is crucial for optimising life cycle engineering. The research work by Alamri and Mo used the failure mode and consequences analysis to build novel preventive maintenance (PM) schedule for a complex system. Their methodology mainly relies on mean-time-to-failure (MTTF) information derived from Industry 4.0 system feedback data. If new MTTF data becomes available, the technique makes it simple to change the PM schedule. The case study findings show that over 90% system reliability has been reached while ensuring that related costs are kept to a minimum. The technical, environmental, and economic effects of maintenance choices throughout the product life cycle are considered in this approach. Information management has pushed digital manufacturing to discover more effective ways to link and share data throughout different system stages. One of the cornerstones of Industry 4.0 is the horizontal and vertical integration of intelligent and self-adaptive systems. To develop an intelligent manufacturing system, Pereira et al. tackled the problem of semantic interoperability. This study provided a conceptual OPEN ACCESS
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编辑:工业4.0时代的生命周期工程
在当今关于可持续发展的辩论中,行业正在努力使其生命周期工程策略现代化。在工业4.0时代,确定可持续的竞争优势是最关键的问题。因此,世界各地的研究人员和行业专家通过整合机器学习、现代计算技术、信息管理和其他多方面的技术(即语义互操作性)来优化产品生命周期。然而,生命周期工程和不断发展的工业4.0技术之间存在差距。因此,通过以下途径优化产品生命周期至关重要。数字化、创新、韧性和可持续性。这将在整个产品的生命周期设计和资源规划中提供更多价值,以实现环保生产,不受限制的操作可用性,以及完全回收或重复使用。鉴于此,本研究主题旨在收集由工业4.0驱动的生命周期工程创新的文章。本课题已发表的研究论文有3篇,综述文章1篇。合理的维护计划是优化生命周期工程的关键。Alamri和Mo的研究工作利用故障模式和后果分析为复杂系统建立了新的预防性维护(PM)计划。他们的方法主要依赖于来自工业4.0系统反馈数据的平均故障时间(MTTF)信息。如果新的MTTF数据可用,该技术使更改PM计划变得简单。案例研究结果表明,在确保相关成本保持在最低水平的同时,系统可靠性已达到90%以上。这种方法考虑了整个产品生命周期中维护选择的技术、环境和经济影响。信息管理推动数字制造发现更有效的方法来链接和共享不同系统阶段的数据。工业4.0的基石之一是智能和自适应系统的横向和纵向整合。为了开发智能制造系统,Pereira等人解决了语义互操作性问题。本研究提供了一个概念性的OPEN ACCESS
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