다물체 동역학을 이용한 양광펌프 거치대의 유압 실린더 설계 및 구조 안전성 평가
Hydraulic Cylinder Design of Lifting Pump Mounting and Structural Safety Estimation of Mounting using Multi-body Dynamics
1
조회
0
다운로드
2
인용
0
참고문헌
키워드
초록
When a deep-seabed lifting pump is kept this device has bending and deformation in the axis due to its long length(8m). These influences can be caused a breakdown. Therefore, a mounting must be developed to keep the lifting pump safe. This paper discusses the hydraulic cylinder design of the lifting pump and structural safety estimation of the mounting using SBD(simulation-based design). The multi-body dynamic simulation method is used, which has been used in the automotive, structural, ship building, and robotics industries. In this study, the position and diameter of the hydraulic cylinder were determined based on the results of the strokes and buckling loads for the design positions of the hydraulic cylinder. A structural dynamic model of the mounting system was constructed using the determined design values, and the structural safety was evaluated using this dynamic model. According to these results, this system has a sufficient safety factor to manufacture.
Abstract
When a deep-seabed lifting pump is kept this device has bending and deformation in the axis due to its long length(8m). These influences can be caused a breakdown. Therefore, a mounting must be developed to keep the lifting pump safe. This paper discusses the hydraulic cylinder design of the lifting pump and structural safety estimation of the mounting using SBD(simulation-based design). The multi-body dynamic simulation method is used, which has been used in the automotive, structural, ship building, and robotics industries. In this study, the position and diameter of the hydraulic cylinder were determined based on the results of the strokes and buckling loads for the design positions of the hydraulic cylinder. A structural dynamic model of the mounting system was constructed using the determined design values, and the structural safety was evaluated using this dynamic model. According to these results, this system has a sufficient safety factor to manufacture.
참고문헌 (13)
- 최종수, "심해저 망간단괴 집광시스템의 물제트부양장치에 대한 FMEA 적용 연구", 한국해양공학회지, 23(6), pp.32~38 (2009), 한국해양공학회
- "DAHUNG" (1986)[URL]
- Haug, E. J., "Computer-Aided Kinematics and Dynamics of Mechanical Systems, Volume I: Basic Methods" (1989), ALLYN AND BACON
- Hong, S., "Proposed Technologies for Mining Deep-Seabed Polymetallic Nodules –Chap 12 Research and Development of Deep Seabed Mining Technologies for Polymetallic Nodules in Korea", Proceedings of International Seabed Authority’s Workshop, pp.261~283 (1999)
- Comparative Study on Tracked Vehicle Dynamics on Soft Soil : Single-Body Dynamics vs. Multi-body Dynamics, "Kim, H. W.", ISOPE, 132~138, pp.OMS-2003 (2003)
- Kim, H. W., "A Study on Prediction Model of Tracked Vehicle for Straight Maneuvering on Soft Soil", ISOPE-2004, pp.83~89 (2004)
- Kim, H. W., "A Study on Steering Characteristics of Four-Row Tracked Vehicle on Extremely Cohesive Soft Soil", Proceedings of the 9th Asia-Pacific ISTVS Conference (2010)
- Lee, J. G., "Simulation-based Design(SBD)Technology", Bulletin of the Society of Naval Architects of Korea, 38(1), pp.47~53 (2001)
- 오재원, "A study of the kinematic characteristic of a coupling device between the buffer system and the flexible pipe of a deep-seabed mining system", International Journal of Naval Architecture and Ocean Engineering, 6(3), pp.652~669 (2014), 대한조선학회
- 오재원, "다물체 동역학을 이용한 연약 지반 4열 궤도 차량의 최적 선회 주행 연구", 한국해양공학회지, 28(2), pp.167~176 (2014), 한국해양공학회
- Jones, R. M., "Bucking of Bars, Plates and Shells" (2006), Bull Ridge Publishing
- Virtual Motion, "DAFUL User`s Manual" (2014), Virtual Motion, Inc
- 여태경, "심해저 연약지반용 무한궤도차량의 견인력-슬립 관계에 관한 실험적 연구", 한국해양공학회지, 21(1), pp.75~80 (2007), 한국해양공학회
