• Title/Summary/Keyword: DMU kinematics

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3D Digital Mockup Application of Cryogenic Butterfly Valve, LNG Carrier (DMU(Digital Mockup) 기법을 적용한 LNG 선박용 극저온 버터플라이 밸브 설계의 우수성 검증)

  • Lee, Dong-Hun;Kim, Duck-Eun;Kim, Soo-Young;Park, Gy-Young
    • Journal of the Society of Naval Architects of Korea
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    • v.43 no.5 s.149
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    • pp.611-618
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    • 2006
  • Recently, cryogenic butterfly valves for LNG carriers are actively developed by ship equipment companies. The dual core structure unlike usual butterfly valve has both translation and gyration motions of the disk of the valve assembly. Especially, the ship equipment companies can not have overcome 2D design method; in addition, even though 2 years of development has passed, the drawing cannot be secured. In this research, for the cryogenic butterfly valves and the product design, 3D design method was introduced and DMU(Digital Mockup) was applied to complement the problems in 2D design and investigate application possibility of 3D design method.

Structural analysis and drive simulation of the top spindle, end coupling and slipper metal which is an important component of hot rolling process (열간압연공정의 주요구성품인 Top Spindle, End Coupling and Slipper Metal의 구조해석 및 구동시뮬레이션)

  • Byun S.W.;Lee Y.S.;Lee H.Y.
    • Proceedings of the Korean Society of Precision Engineering Conference
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    • 2005.10a
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    • pp.674-680
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    • 2005
  • The top spindle, end coupling and slipper metal are important components of the hot rolling process and are used for transmission of heavy rotational power. In this study, kinematic analysis is conducted using finite element method for hot rolling process under slipper metal combination types and operation situations. The structural analysis is performed by applying the combination type, rotational boundary condition of top spindle, end coupling and slipper metal. This study aims to minimize the mechanical problems which might happen in the production process.

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