Template-based variant process planning for manned assembly lines

We review the literature about shop scheduling problems in manufacturing systems, revealing the concepts and methodologies that most impact the usage of scheduling theory in manufacturing environments. We focus our attention on the job shop and flow shop problems and their variants. We emphasize the interactions between the scheduling functions and manufacturing paradigms such as Industry 4.0, Computer Integrated Manufacturing, Computer‐Aided Process Planning, Advanced Planning and Scheduling, and Integrated Process Planning and Scheduling. We describe the main components and characteristics of the scheduling ecosystem, and we discuss how the scheduling interacts with the components that make it up and how it is affected by them. The metadata collected from the digital libraries on which the review was based (ScienceDirect, Scopus, and Elsevier) made it possible to characterize the historical evolution of the main concepts of the scheduling ecosystem in terms of scientific publications and research trends in the period 2000–2020.

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“…Ham et al. (2017) proposed a framework of a variant CAPP system for operated assembly lines. It is composed of two modules.…”

Section: Process Planning and Schedulingmentioning

confidence: 99%

Shop scheduling in manufacturing environments: a review

Márquez

Ribeiro

2022

Int Trans Operational Res

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Section: Variant Process Planning Systemsmentioning

confidence: 99%

“…Template-based variant process planning for manned assembly lines is investigated by Ham et al (2017) to generate a standard process plan and for the development of a new process plan based on standard ones. Variant process planning for manned assembly lines is shown in the figure 1 Ham et al (2017). Variant process planning of casting model using AHP-based nearest neighbor algorithm is developed by Chougule and Ravi (2005) to modify the process parameter such as size, shape complexity, section thickness for the geometry and surface finish, tolerance, maximum void size for quality of produced parts using casting operations.…”

Section: Variant Process Planning Systemsmentioning

confidence: 99%

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Classification of research and applications of the computer aided process planning in manufacturing systems

Soori

Asmael

2021

Ind. Jour. Manag. & Prod.

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The Computer Aided Process Planning (CAPP) systems are recently developed in manufacturing engineering to provide links between Computer Aided Design (CAD) and Computer Aided Manufacturing (CAM) systems. The CAPP systems are developed by considering the different issues of computer applications in production engineering. Optimization techniques can be applied to the CAPP to increase efficiency in part production processes. The energy consumption of part production process can be analyzed and optimized using the CAPP systems in order to increase added value in the part manufacturing process. Also, artificial neural networks as well as cloud manufacturing systems can be applied to the CAPP systems to share advantages of the different CAPP systems in different industry applications. Flexible process planning systems are developed using dynamic CAPP in order to cope with product varieties in process of part production. To develop potential energy saving strategies during product design and process planning stages, the advanced CAPP systems can be used. In this paper, a review of Computer Process Planning systems (CAPP) is presented and future research works are also suggested. It has been observed that the research filed can be moved forward by reviewing and analyzing recent achievements in the published papers.

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“…At this time, it is necessary to consider the efficiency of material flows as well as potential traffic congestions. The design procedure of a manufacturing system is a repetitive decision-making process and should be done by experienced domain experts (Ham et al, 2017;Ko and Park, 2014;Park et al, 2008Park et al, , 2013Xu et al, 2000).…”

Section: Introductionmentioning

confidence: 99%

Configuration space–based discrete event system specification formalism for a smart factory with real-time flexibility

Chang

Park

2018

Concurrent Engineering

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A manufacturing system consists of various manufacturing devices, and each device has a set of tasks which are triggered by specific commands. Traditionally, simulation has been considered as an essential technology for the evaluation and analysis of manufacturing systems. Although discrete event system specification formalism has been a popular modeling tool for manufacturing systems, it has limitations in describing situations such as sudden cancelation of tasks. Proposed in this article is an extended discrete event system specification formalism for the effective description of a smart factory which requires the intelligence to handle turbulences in real-time production. The extended discrete event system specification formalism incorporates the configuration space concept, which is well-known in classical mechanics. While the conventional discrete event system specification formalism uses only the logical states set to represent the device states, the proposed formalism employs the combination of two sets: a logical states set (sequential states set) and a physical states set (configuration space of the device). As a result, the extended formalism enables the effective description of nondeterministic tasks which may occur frequently in a smart factory.

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Template-based variant process planning for manned assembly lines

Cited by 3 publications

References 30 publications

Shop scheduling in manufacturing environments: a review

Shop scheduling in manufacturing environments: a review

Classification of research and applications of the computer aided process planning in manufacturing systems

Configuration space–based discrete event system specification formalism for a smart factory with real-time flexibility

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