PLM services, a new OMG standard to push “collaborative engineering” ICE 2005

Feltes, Michael; Lämmer, Lutz; Vettermann, Steven

doi:10.1109/itmc.2005.7461299

Cited by 7 publications

(6 citation statements)

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“…IGES [41], STEP AP203 [42], STEP AP214 [43], and JT [44] are international standards for 3D data interchange, while VRML [45] and X3D [46] are frequently used for 3D data visualization. International standards related to PLM are, for example, STEP AP239 (commonly known as PLCS) [47], AP242 [48,49], and the OMG PLM Services [50].…”

Section: Standardsmentioning

confidence: 99%

An analysis of technologies and standards for designing smart manufacturing systems

Choi

Jung²,

Kulvatunyou

et al. 2016

J. RES. NATL. INST. STAN.

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Smart manufacturing is defined by high degrees of automation. Automation, in turn, is defined by clearly defined processes. The use of standards in this environment is not just commonplace, but essential to creating repeatable processes and reliable systems.As with the rest of society, manufacturing systems are becoming more tightly connected through advances in information and communication technologies (ICT). As a result, manufacturers are able to receive information from their business partners and operational units much more quickly and are expected to respond quickly as well. Quick responses to changes in a manufacturing system are much more challenging than the responses that we have come to expect in other aspects of our lives.Manufacturing revolves around heavy capital investments to rapidly produce large amounts of product in anticipation of steady streams of commerce. Changes under these conditions not only disrupt the operations, slowing the production of goods, but also create difficulties with managing the capital investments. These are challenges manufacturers face daily. A large part of these challenges is understanding how best to refit manufacturing facilities to respond to variability, and how to plan new production facilities. By analyzing the information that is available in a manufacturing system, manufacturers can make more informed decisions as to how to respond to change. Advances in the technological infrastructure underlying manufacturing systems are enabling more reliable and timely flow of information across all levels of the manufacturing operation. We propose that effective utilization of such operational information will enable more automated, agile responses to the changing conditions, i.e. Smart Manufacturing.In this paper, we analyze the sources and the standards supporting the flow of that information throughout the enterprise. The analysis is based an intersection of two reference models: the Factory Design and Improvement (FDI) process and the ISA88 hierarchical model of manufacturing operations. The FDI process consists of a set of high-level activities for designing and improving manufacturing operations. The ISA88 hierarchical model specifies seven levels of control within a manufacturing enterprise.

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Section: Standardsmentioning

confidence: 99%

An analysis of technologies and standards for designing smart manufacturing systems

Choi

Jung²,

Kulvatunyou

et al. 2016

J. RES. NATL. INST. STAN.

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“…This data exchange standard was adopted by the Object Management Group (OMG) in 2004 (OMG 2008). The data model for PLM Services follows the structure of STEP 214, which is being used in the automobile industry and is effective in expressing the structure of product data (Feltes 2005). PLM Services also defines a platform-independent model (PIM) and can thus be accessed and executed in accordance with various standards, such as STEP, XML, unified modelling language (UML), simple object access protocol (SOAP) and Web services description language (WSDL) (OMG).…”

Section: Common Schema and Xmlmentioning

confidence: 99%

XML-based neutral schema for automated ergonomic analysis with digital human simulation and inline motion capture

Joung

Noh

2015

International Journal of Computer Integrated Manufacturing

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The information needed to perform ergonomic simulations of a plant process includes the bill of material of the product, plant layout, CAD files of the facilities/equipment/tools/parts constructed in the plant, work processes and motion information of a worker. Product lifecycle management (PLM) consists of the integrated management of product-related information throughout the entire lifecycle of the product, from understanding the customer's needs, which is the initial product planning step, to maintenance and repair, which comprise the last step. PLM has drawn attention as a core strategy for the informatisation of production, which is essential to the various challenges currently faced by the manufacturing industry, such as timely product development and cooperation between different departments or firms. Most studies on data management using PLM systems, however, have focused on managing product information. Therefore, this study extends the range of information managed through PLM to the product, plant, process, resources and human factors (P3RH), and the P3RH schema is defined for the purpose of providing integrated management. An automated ergonomic simulation system was developed to test the defined schema consisting of a PLM system, inline motion capture system, PLM integrator and ergonomic simulator. Furthermore, the P3RH schema defined in this study is used for system integration.

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“…It is the first standard comprising current XML and web services technologies with a STEP data model, thus, providing both syntax and semantics. It supports cross-company, cross-domain, crosssystem and cross-technology collaboration and provides a solid foundation for collaborative engineering (Feltes, 2005).…”

Section: Analysis Of Enterprise Standardsmentioning

confidence: 99%

A new closed-loop PLM Standard for mass products

Cassina

Tomasella

Taisch

et al. 2009

IJPD

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This work presents the product object model developed in the context of the EU-funded FP6-IST project named PROduct lifecycle Management and Information tracking using Smart Embedded systems (PROMISE), aiming at the closure of the whole set of information loops throughout the product lifecycle. The ultimate goals of the project are indeed to integrate product data from the entire lifecycle via different sources, to support comprehensive analysis on this data and to enhance by this the enterprise operational businesses. To achieve these goals, a set of hardware and software tools were developed. This paper presents the conceptual model behind one of the software components of this infrastructure, called the Product Data and Knowledge Management (PDKM) system, which is responsible for the integration and management of both product data and knowledge from all lifecycle phases, on a logically consistent basis. The same model also became the foundation for the proposal of a closed-loop PLM standard.

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PLM services, a new OMG standard to push “collaborative engineering” ICE 2005

Cited by 7 publications

References 0 publications

An analysis of technologies and standards for designing smart manufacturing systems

An analysis of technologies and standards for designing smart manufacturing systems

XML-based neutral schema for automated ergonomic analysis with digital human simulation and inline motion capture

A new closed-loop PLM Standard for mass products

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