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    해석 기법 별 유체 슬로싱 현상에 대한 비교 분석

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    https://www.riss.kr/link?id=A107212838

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    In a swaying tank partially filled with liquid, inertia of the liquid exerts body force on itself, causing a periodic motion of the free surface of the liquid. This might cause the tank sway, which leads to structural damages of it. This phenomenon is called “Liquid Sloshing.” Many researches on liquid sloshing including experiments were conducted through numerical methods like Finite Volume Method(FVM), Finite Element Method(FEM), and Smoothed Particle Hydrodynamics(SPH) Method and so on. Except for particle-based numerical methods, other numerical methods are required to simulate free surface shape of liquid. These grid-based methods use Volume of Fluid method(VOF) or Level-set method to imitate the free surface shape.
    In this Paper, It aims to simulate sloshing phenomena of 3-dimensional rectangular tank. FVM and VOF method, FEM and Level-set method, and a particle-based solver with SPH method are used for analyzing sloshing motions. The CFD results are compared with experimental data and other published computational data. The details of time history pressure data on the tank wall and the free surface shape are discussed to find characteristics of the numerical methods.
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    In a swaying tank partially filled with liquid, inertia of the liquid exerts body force on itself, causing a periodic motion of the free surface of the liquid. This might cause the tank sway, which leads to structural damages of it. This phenomenon is...

    In a swaying tank partially filled with liquid, inertia of the liquid exerts body force on itself, causing a periodic motion of the free surface of the liquid. This might cause the tank sway, which leads to structural damages of it. This phenomenon is called “Liquid Sloshing.” Many researches on liquid sloshing including experiments were conducted through numerical methods like Finite Volume Method(FVM), Finite Element Method(FEM), and Smoothed Particle Hydrodynamics(SPH) Method and so on. Except for particle-based numerical methods, other numerical methods are required to simulate free surface shape of liquid. These grid-based methods use Volume of Fluid method(VOF) or Level-set method to imitate the free surface shape.
    In this Paper, It aims to simulate sloshing phenomena of 3-dimensional rectangular tank. FVM and VOF method, FEM and Level-set method, and a particle-based solver with SPH method are used for analyzing sloshing motions. The CFD results are compared with experimental data and other published computational data. The details of time history pressure data on the tank wall and the free surface shape are discussed to find characteristics of the numerical methods.

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    참고문헌 (Reference)

    1 백은림, "유체 슬로싱 해석을 위한 액체저장탱크 진동대 실험 DB" 한국소음진동공학회 27 (27): 545-554, 2017

    2 김성필, "스프링-댐퍼를 갖는 슬로싱 유동의 유체-다물체동역학 연성 시뮬레이션" 한국전산유체공학회 22 (22): 103-108, 2017

    3 이창열, "배플의 높이 변화에 따른 3차원 사각 탱크 내부의 슬로싱 현상에 관한 수치적 연구" 대한조선학회 47 (47): 38-46, 2010

    4 Hirt, C.W., "Volume of fluid(VOF)method for the dynamics of free boundaries" 39 : 201-225, 1981

    5 Liu, D., "Three-dimensinal liquid sloshing in a tank with baffles" 36 : 202-212, 2009

    6 Dodge, F.T., "The new ‘Dynamic Behavior of Liquids in Moving Containers’" Southwest Research Institute 3-23, 2000

    7 Kang, D.H., "Summary report of sloshing model test for rectangular model" Daewoo Shipbuilding & Marine Engineering Co., Ltd 2005

    8 Liu, Z., "Sloshing hydrodynamic performance in cryogenic liquid oxygen tanks under different amplitudes" 150 : 359-371, 2019

    9 Xu, J., "SPH and ALE formulations for sloshing tank analysis" 9 (9): 209-223, 2016

    10 Puckett, W. J., "Reconstructing volume tracking" 141 : 112-152, 1997

    1 백은림, "유체 슬로싱 해석을 위한 액체저장탱크 진동대 실험 DB" 한국소음진동공학회 27 (27): 545-554, 2017

    2 김성필, "스프링-댐퍼를 갖는 슬로싱 유동의 유체-다물체동역학 연성 시뮬레이션" 한국전산유체공학회 22 (22): 103-108, 2017

    3 이창열, "배플의 높이 변화에 따른 3차원 사각 탱크 내부의 슬로싱 현상에 관한 수치적 연구" 대한조선학회 47 (47): 38-46, 2010

    4 Hirt, C.W., "Volume of fluid(VOF)method for the dynamics of free boundaries" 39 : 201-225, 1981

    5 Liu, D., "Three-dimensinal liquid sloshing in a tank with baffles" 36 : 202-212, 2009

    6 Dodge, F.T., "The new ‘Dynamic Behavior of Liquids in Moving Containers’" Southwest Research Institute 3-23, 2000

    7 Kang, D.H., "Summary report of sloshing model test for rectangular model" Daewoo Shipbuilding & Marine Engineering Co., Ltd 2005

    8 Liu, Z., "Sloshing hydrodynamic performance in cryogenic liquid oxygen tanks under different amplitudes" 150 : 359-371, 2019

    9 Xu, J., "SPH and ALE formulations for sloshing tank analysis" 9 (9): 209-223, 2016

    10 Puckett, W. J., "Reconstructing volume tracking" 141 : 112-152, 1997

    11 Chen, Y. G., "Numerical simulation of liquid sloshing phenomena in partially filled containers" 38 : 830-842, 2009

    12 Biswal, K. C., "Non-linear sloshing in partially liquid filled containers" 68 : 317-337, 2006

    13 Dong, C., "Modeling and Simulation of Sloshing motion in Partially filled tank" 2015

    14 Zhang, Y., "MPS-FEM coupled method for sloshing flows in an elastic tank" 152 : 416-427, 2018

    15 "Hypermesh Tutorial"

    16 Liu, Z., "Fluid sloshing dynamic performance in a liquid hydrogen tank" 44 : 13385-13894, 2019

    17 Xue, M., "Fluid dynamics analysis of sloshing pressure distribution in storage vessels of different shapes" 192 : 2019

    18 "Fluent 2020R1 User guide"

    19 Akyildiz, H., "Experimental investigation of pressure distribution on a rectangular tank due to the liquid sloshing" 32 : 1503-1516, 2005

    20 Yu, L., "Experimental investigation of parametric sloshing in a tank with vertical baffles" 213 : 2020

    21 "Altair nanoFluidX 2019.1.1. User Manual"

    22 Choi, S.Y., "A GPU accerated SPH approach for validation of tank sloshing" 2018

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