A Web-Based Distributed Product Realization Environment

Xiao, Angran; Choi, Hae-Jin; Kulkarni, Rahul; Allen, Janet K.; Rosen, David W.; Mistree, Farrokh; Feng, Shaw C.

doi:10.1115/detc2001/cie-21766

Cited by 26 publications

(6 citation statements)

References 11 publications

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“…The examples, experiments, and web‐DPR are more completely presented in the references Chen (2001), Sambu (2001) and Xiao et al (2001).…”

Section: Experiments and Resultsmentioning

confidence: 99%

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The rapid tooling testbed: a distributed design‐for‐manufacturing system

Rosen

Chen²,

Sambu³

et al. 2003

Rapid Prototyping Journal

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A new design-for-manufacturing method, called the geometric tailoring (GT), and the associated digital interface concept have been developed that enable the design activities to be separated from the manufacturing activities. Conditions for the successful application of this method are investigated. The GT method is demonstrated for rapid prototyping and rapid tooling technologies, where prototype parts are required to match the production properties as closely as possible. This method is embodied in a system called the rapid tooling testbed (RTTB). Research work is presented on GT and the distributed computing environment underlying the RTTB. Examples are summarized from the usage of this method and testbed.

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“…The examples, experiments, and web‐DPR are more completely presented in the references Chen (2001), Sambu (2001) and Xiao et al (2001).…”

Section: Experiments and Resultsmentioning

confidence: 99%

“…The third computing framework was called web‐DPR, a web‐based distributed product realization environment (Xiao et al , 2001). Web‐DPR enabled users to interact with product models, perform GT, and explore the effects of changes in project requirements through web browsers.…”

Section: Web‐based Distributed Product Realization Environmentmentioning

confidence: 99%

The rapid tooling testbed: a distributed design‐for‐manufacturing system

Rosen

Chen²,

Sambu³

et al. 2003

Rapid Prototyping Journal

Self Cite

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“…The sizing model is made in a collaborative process based on internet exchanges (Shyamsundar and Gadh, 2001; Xue and Xu, 2001; Xiao et al , 2001). For that, exchanges are carried out with net meeting tools: chat, whiteboard, audio tools, video tools, application sharing, data exchanges, etc.…”

Section: Optimisationmentioning

confidence: 99%

Co‐sizing of an electromechanical device by using optimisation process

Ammar

Gerbaud

Marin

et al. 2005

COMPEL - The International Journal for Computation and Mathematics in Electrical and Electronic Engineering

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PurposeThis paper deals with the collaborative design of electromagnetic devices over the internet network. The design is made by both mechanical and electrical engineers. So, the paper tries to show the importance but also constraints to size such a system using a collaborative optimisation process.Design/methodology/approachThe paper compares two approaches in order to size an electromechanical actuator between mechanical and electrical engineers. In the first one, each profession designs its part, and only common constrained are negotiated. This can result in a design process with many iterations. In the second one, electrical and mechanical engineers built together a common model of the structure and a common list of specifications: this allows a global optimisation that is more efficient.FindingsThe main result of the paper is that the second approach in which a global model is built between electrical and mechanical engineers is more efficient.Originality/valueThe originality of the paper is to explore the problems and difficulties of an optimisation of an electromechanical device between engineers of different culture working together over the internet network.

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“…An integrated system is required for the creation, sharing and exchange of design, manufacturing, operation, and maintenance-related information. The required system should minimize redundancies in sharing and exchanging of technical information [14][15][16].…”

Section: Introductionmentioning

confidence: 99%

3D Virtual Knowledge Space for Collaboration in New Product Development Processes

Kim

Choi

2011

Concurrent Engineering

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The purpose of this article is to create a virtual knowledge space, K-SPACE (Knowledge Space), that enables communication and knowledge sharing between a business level and a plant level for mutual decision-making. Another purpose of a virtual knowledge space is to enable successful collaboration that ensures better quality while reducing costs and time by checking the task progress of departments participating in new product development (NPD) under the concurrent engineering (CE) paradigm. The Croquet software development kit is utilized to develop the knowledge space, which is a small-talk based, object-oriented language. The use of K-SPACE at enterprises that adapt the CE philosophy for NPD processes is expected to reduce both time and cost through fast, accurate, efficient, and collaborative decision making for various conflicting issues.

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A Web-Based Distributed Product Realization Environment

Cited by 26 publications

References 11 publications

The rapid tooling testbed: a distributed design‐for‐manufacturing system

The rapid tooling testbed: a distributed design‐for‐manufacturing system

Co‐sizing of an electromechanical device by using optimisation process

3D Virtual Knowledge Space for Collaboration in New Product Development Processes

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