A Numerical Study of Liquid Sloshing in a Two-dimensional Tank under External Excitations

In this research, liquid sloshing behavior in a 2-D rectangular tank was simulated using ANSYS-FLUENT software subject to single or multiple-coupled external excitations (such as sway coupled with roll, and sway and roll coupled with heave). The volume of fluid (VOF) method was used to track the fre...

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Bibliographic Details
Published inJournal of marine science and application Vol. 11; no. 3; pp. 305 - 310
Main Authors Hou, Ling, Li, Fangcheng, Wu, Chunliang
Format Journal Article
LanguageEnglish
Published Heidelberg Harbin Engineering University 01.09.2012
Engineering College,Guangdong Ocean University,Zhanjiang 524088,China%Cain Department of Chemical Engineering,Louisiana State University,Baton Rouge LA 70803,United States
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Summary:In this research, liquid sloshing behavior in a 2-D rectangular tank was simulated using ANSYS-FLUENT software subject to single or multiple-coupled external excitations (such as sway coupled with roll, and sway and roll coupled with heave). The volume of fluid (VOF) method was used to track the free surface of sloshing. External excitation was imposed through the motion of the tank by using the dynamic mesh technique. The study shows that if the tank is subjected to multiple coupled excitations and resonant excitation frequencies, liquid sloshing will become violent and sloshing loads, including impact on the top wall, will be intensified.
Bibliography:In this research, liquid sloshing behavior in a 2-D rectangular tank was simulated using ANSYS-FLUENT software subject to single or multiple-coupled external excitations (such as sway coupled with roll, and sway and roll coupled with heave). The volume of fluid (VOF) method was used to track the free surface of sloshing. External excitation was imposed through the motion of the tank by using the dynamic mesh technique. The study shows that if the tank is subjected to multiple coupled excitations and resonant excitation frequencies, liquid sloshing will become violent and sloshing loads, including impact on the top wall, will be intensified.
23-1505/T
liquid sloshing; multiple coupled excitations; computational fluid dynamics (CFD); dynamic meshtechnique
ISSN:1671-9433
1993-5048
DOI:10.1007/s11804-012-1137-y