A framework for sharing product information across enterprises

Kim, Hyun; Kim, Hyung Sun; Lee, Joo-Haeng; Jung, J.M.; Lee, Jae Yeol; Do, Namchul

doi:10.1007/s00170-004-2222-4

Cited by 36 publications

(15 citation statements)

References 10 publications

(6 reference statements)

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“…Instead, inhibiting factors upon PLM (such as unclear customer requirements, shorter delivery times and numerous technical constraints ; or those noted by Kim et al [2006]: product data interoperability, system application interoperability, and process interoperability) may only be solved if a valuechain orientation is factored-in for our consideration. The major problem with the current vendor-oriented PLM remit, as described above, is that it cannot adequately handle such an additional value chain focus; instead, such a viewpoint must be tackled by the deployment of PLM concepts that have emerged from other viewpoints of the product lifecycle concept that is not dependent upon a simplistic examination of the emergence and merging of product-oriented computing tools in the past few decades.…”

Section: Introductionmentioning

confidence: 99%

Product life cycle: the evolution of a paradigm and literature review from 1950–2009

Cao

Folan

2011

Production Planning & Control

125

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Section: Introductionmentioning

confidence: 99%

Product life cycle: the evolution of a paradigm and literature review from 1950–2009

Cao

Folan

2011

Production Planning & Control

125

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“…Corbett et al (1999) emphasizes that the efficiency of supply chain management can be enhanced through the information sharing and coordination decisions among supply chain partners. Kim et al (2006) developed a framework, which can be used for product information sharing in enterprises collaborative design project. To share the information, Choi et al (2005) proposed constructing a product design chain collaboration framework.…”

Section: Literature Reviewmentioning

confidence: 99%

Collaboration space division in collaborative product development based on a genetic algorithm

Qian

Feng

2018

J Ind Eng Int

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The advance in the global environment, rapidly changing markets, and information technology has created a new stage for design. In such an environment, one strategy for success is the Collaborative Product Development (CPD). Organizing people effectively is the goal of Collaborative Product Development, and it solves the problem with certain foreseeability. The development group activities are influenced not only by the methods and decisions available, but also by correlation among personnel. Grouping the personnel according to their correlation intensity is defined as collaboration space division (CSD). Upon establishment of a correlation matrix (CM) of personnel and an analysis of the collaboration space, the genetic algorithm (GA) and minimum description length (MDL) principle may be used as tools in optimizing collaboration space. The MDL principle is used in setting up an object function, and the GA is used as a methodology. The algorithm encodes spatial information as a chromosome in binary. After repetitious crossover, mutation, selection and multiplication, a robust chromosome is found, which can be decoded into an optimal collaboration space. This new method can calculate the members in sub-spaces and individual groupings within the staff. Furthermore, the intersection of sub-spaces and public persons belonging to all sub-spaces can be determined simultaneously.

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“…applications [4].These approaches focus on the product, rather than on the manufacturing system domain.…”

Section: Introductionmentioning

confidence: 99%

“…The primary objective was to provide methods for a coordinated factory development process with a facilitated information exchange and reuse of knowledge and models. Results concerning required layout and PLM (Product Lifecycle Management) functionalities, as well as modelling and communication principles, tested in an industrial case, are presented.applications [4].These approaches focus on the product, rather than on the manufacturing system domain. …”

mentioning

confidence: 99%

Rapid Production Changes through the Coordination of Factory Layout Models and Activities

Shariatzadeh

Lindberg²,

Sivard³

2013

J Appl Mech Eng

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Factory layout design is a multidisciplinary, knowledge-intensive task that is vital for the survival of manufacturers in today's globally competitive environment. The need to design and construct a new factory or reconfigure the current one has increased largely because of the fast changes in customer demands both from a product quantity and a product variety aspect. Further, the factory design process affects not only the effectiveness of the project phase but also the subsequent production efficiency, in terms of the material flows, space utilization, energy consumption, working environment, and safety.When designing a factory, the consolidation and integration of different models is of particular interest since the design of a factory involves many different stakeholders. These stakeholders, who come from the building, media, manufacturing and machine design domains, typically utilize different models and CAX systems from different system vendors.The problem is that information is inconsistent: it resides in various systems and applications, in different formats and with various levels of detail and viewpoints. This is especially troublesome when companies who collaborate use software from different vendors using different data structures. To facilitate the communication and sharing of information between these applications, it is necessary to use common formats. There are many existing system neutral standards, but they are developed for different and more or less specific purposes, and are not harmonized with other aspects of the manufacturing domain.For implementing an integrated information environment, OMG has worked on developing 'PDM Enablers' . PDM Enablers provide standard interfaces to PDM systems [1]. Another study has focused on data exchange between heterogeneous PDM systems using PLM Services [2,3] proposed an integrated data model, which is referred as a STEP schema, and JPDM (Joint Product Data Management), besides an approach for implementing a PDM system that uses STEP as a standard for the exchange of product data [3]. For implementing Collaborative Product Commerce in a virtual enterprise, [4] defined product metadata through STEP PDM and then applied it to the integration of AbstractChanging the design of a factory in practice involves the change of a number of parallel and interdependent systems such as the machining resources and robot cells, the supply systems for electricity, water, air, heat and cooling, pneumatics and hydraulics, the systems for chip and waste handling, process fluid, communication networks, sprinkler systems, as well as the building construction. Thus the coordination of information and models, as well as of the design work activities, is of utmost importance to achieve a fast and flexible development process. This paper presents the results from a research project focusing on computer aided work processes and the communication of models between various stake holders in layout design. The primary objective was to provide methods for a coordinated factory developm...

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A framework for sharing product information across enterprises

Cited by 36 publications

References 10 publications

Product life cycle: the evolution of a paradigm and literature review from 1950–2009

Product life cycle: the evolution of a paradigm and literature review from 1950–2009

Collaboration space division in collaborative product development based on a genetic algorithm

Rapid Production Changes through the Coordination of Factory Layout Models and Activities

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