• Title/Summary/Keyword: PLM

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Consideration of Relations between PLM(Product Lifecycle Management) and Systems Engineering (PLM(Product Lifecycle Management)과 시스템엔지니어링과의 관계 고찰)

  • Park, Jung-Yong
    • 시스템엔지니어링워크숍
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    • s.4
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    • pp.175-178
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    • 2004
  • This paper introduces the concept and market status of PLM, then analyses PLM with an SEview I focus on relations beween SE and PLM. I propose some research topics about integration of SE and PLM and I expect growth of PLM market be a good chance of SE territorial expansion and marketing.

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Deduction of R-PLM technology development consideration (R-PLM 기술 개발 시 고려사항 도출에 관한 연구)

  • Kang, Tae-Wook
    • Journal of the Korea Academia-Industrial cooperation Society
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    • v.15 no.7
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    • pp.4618-4625
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    • 2014
  • The aim of this study was to develop a R-PLM (Railway BIM-based Product Lifecycle Management) technology. The railway engineering productivity can be maximized if the railway product is created using the object modeling method and the railway lifecycle process is managed effectively. Recently, technology known as BIM and PLM was applied to the construction industry to improve the productivity. To define the R-PLM functions, the expert interview and a practitioner interview were conducted to identify the expected outcome and obstacles to R-PLM technology. As a result, the differences between the occupation and the priority of those were derived. Finally, R-PLM technology development consideration was suggested based on the interview results.

A Study on Development of Sustainable PLM Framework (지속가능 PLM Framework 개발에 관한 연구)

  • Ahn, Yong-Ho;Ahn, Joong Min;Shin, Tae-Shik;Park, Jung-Ho;Kim, Tae-Sung
    • Journal of Digital Convergence
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    • v.13 no.3
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    • pp.65-73
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    • 2015
  • The purpose of this study is to examine the relationship between sustainable PLM(Product Lifecycle Management) activity and performance. To ensure this purpose, we designed the S-PLM Framework which is consisted of traditional PLM activity and sustainable PLM activity. We also conducted path analysis to investigate PLM success factor on manufacturing company and to understand the relationship between these success factors. First the result of analysis of the relationship between traditional PLM activity and sustainable performance. Second, there is significantly positive relationship between sustainable activity and performance. Third, traditional PLM activity and sustainable PLM activity factor have an influence on the innovation performance factor. Fourth, sustainable performance have an effect on the management and business performance. In conclude we analyzed and verified the influence sustainable PLM establishment mechanism and the sustainable PLM activity factors. Therefore this study is to create innovative performance and to improve efficiency of Convergence PLM establishment and operation.

Developing an Introductory Training Course to PLM (PLM 입문을 위한 교육과정 개발)

  • Do, Namchul
    • Korean Journal of Computational Design and Engineering
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    • v.18 no.1
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    • pp.28-35
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    • 2013
  • Product Life cycle Management (PLM) is an indispensable tool for manufactures to develop competitive products in an efficient way. This enlarges the number of participants for product development who should understand PLM for their supporting activities. However, burdens for developing example products, maintaining complex PLM systems and training prerequisite skills for engineering tools such as CAD systems prohibit an efficient introductory course to PLM. This paper proposes a comprehensive introductory course to PLM that bases on general product development process. In addition, it enables participants to build their example products with familiar Lego blocks and to construct 3D CAD assembly models by using predefined 3D elements. The PLM system for the course provides an intuitive and simple user environment for participants to specify their parts lists, associated 3D CAD models, and product structure of example products. Experiences on a class of the course show it is a valid and efficient education and training method for the PLM introduction.

Framework of Ship PLM System Based Upon Four-Tier Model (4-계층 모델 기반의 선박 수명주기관리 시스템 프레임워크)

  • Kim, Seung-Hyun;Lee, Jang-Hyun;Lee, Kyung-Ho;Suh, Heung-Won
    • Korean Journal of Computational Design and Engineering
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    • v.15 no.5
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    • pp.362-374
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    • 2010
  • Product Lifecycle Management (PLM) is an integrated business approach to manage the creation and distribution of product information throughout the product development process. From the product perspective, PLM encompasses a holistic approach to product development and product information management. It supports the integrated product information in conjunction with the efficient product structures and BOM (Bill Of Material), user interfaces, proper functions, design processes and enterprise integration. Therefore, PLM should not only satisfy required functions as an enterprise software but also offer a systematic method for the efficient application from the initial stage of its development. Recently, many shipyards have been considering the PLM as a strategic solution to get the efficient management of product information such as 3-D models, BOM, drawings, documents, and the other product data. Though many studies on PLM are performed, most of them are performed in a function-based approach adequate for mass productive assembly industries. It could not help having limitations on applying the proper PLM system to the shipbuilding business since the requirements of shipbuilding PLM are too diverse and huge to design the architecture. This study presents the PLM framework which effectively reflects the diverse requirements of shipbuilding PLM. In order to get the macroscopic architecture of shipbuilding PLM, authors suggest the four-tier architecture model which considers the various requirements collected from shipyards. Entities of ship design data are modeled BOM in terms of product structure and hierarchical class diagram. Applicable functions of shipbuilding PLM are also investigated by analysis of issues of ship design. Finally, by reflecting the design process of shipbuilding, To-Be ship design procedure cooperated with the suggested PLM framework has been summarized.

RFID Applications in Product Lifecycle Management (PLM) (제품 라이프 사이클 관리에서 RFID 응용에 관한 연구)

  • Jun, Hong-Bae
    • IE interfaces
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    • v.19 no.3
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    • pp.181-189
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    • 2006
  • This study introduces an overall framework for RFID applications in product lifecycle management(PLM). PLM is a new strategic approach to manage product related information efficiently over the whole product lifecycle. Recently, with emerging technologies such as radio frequency identification(RFID), global positioning system(GPS), and wireless communication, PLM provides a new environment that enables us to gather and analyze product lifecycle information, and make decisions on several issues without spatial and temporal constrains. However, a PLM system just provides us with new opportunities to gain the PLM system, first and foremost, it is necessary to look into its overall framework in the viewpoint of hardware, software, and business model. For this purpose, in this study, first, we introduce the technical framework of the new PLM environment with the concept of extended RFID system, called product embedded information device(PEID). Then, for each lifecycle phase such as beginning of life(BOL), middle of life(MOL), and end of life(EOL), we explore several research problems that become highlighted under the new PLM environment.

C-PLM: Design and Implementation of a PLM System for Effective Management of Civil Projects (C-PLM: 토목 프로젝트 관리를 위한 PLM 시스템 설계 및 구축)

  • Kang, Hyoung-Seok;Lee, Sang-Seok;Noh, Sang-Do;Lee, Kwang-Myoung
    • Korean Journal of Computational Design and Engineering
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    • v.15 no.2
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    • pp.124-135
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    • 2010
  • PLM(Product Lifecycle Management) is one of innovative manufacturing paradigms which leverages e-business technologies to allow a company's product content to be developed and integrated with all company business process through the extended enterprise. In these days, most construction companies also make an effort to enhance their systems for creating, sharing and managing information to improve business efficiency through entire lifecycle of project execution. Because of different needs, business process and diverse engineering activities such as design, structural analysis, installing simulation, documents and data managements, a new paradigm for construction companies is needed to manage and share the entire workflow, and information in total project lifecycle. In this paper, we conducted user requirement and business process analysis of constructions to design C-PLM system which is a PLM system for effective management of civil project and engineering activities. Also, we implement C-PLM system based on commercial PDM system, and applied it to civil project as case studies.

Requirement Analysis on Lightweight CAD Models in Ship PLM Environment and Its Application Examples (조선 PLM 환경에서 경량 CAD 모델에 대한 요구사항 분석 및 적용 사례)

  • Cheon, Sanguk;Lee, Ji-Hoon;Park, Kwang-Phil;Suh, Heung-Won
    • Korean Journal of Computational Design and Engineering
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    • v.18 no.4
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    • pp.299-307
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    • 2013
  • Introduction of PLM in domestic shipyards is being retarded as ship PLM has yet to firm up return of investment and process integration. To implement a ship PLM system, it is required to share ship CAD model data in various design and manufacturing environments. Lightweight CAD models provide a promising solution for sharing CAD models in the product life cycle, which can expedite implementation of ship PLM in domestic shipyards in the near future. Compared to proprietary CAD models, it is easy for lightweight CAD models to be interfaced with various application systems and be connected to manufacturing information. In this paper, the reason why lightweight CAD models are necessary to implement a ship PLM system is addressed and current implementation results are introduced.