Numerical Simulations on Liquid Sloshing in the Moving Tank During Braking of a Tank Truck by Fluid Structure Interaction Method
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Numerical Simulations on Liquid Sloshing in the Moving Tank During Braking of a Tank Truck by Fluid Structure Interaction Method
Vol. 46, Issue 5, Pages: 120-126(2012)
作者机构:
西安交通大学能源与动力工程学院,西安,710049
作者简介:
基金信息:
DOI:
CLC:U469.6
Online First:10 May 2012,
Published:2012
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Numerical Simulations on Liquid Sloshing in the Moving Tank During Braking of a Tank Truck by Fluid Structure Interaction Method[J]. 2012, 46(5): 120-126.
DOI:
Numerical Simulations on Liquid Sloshing in the Moving Tank During Braking of a Tank Truck by Fluid Structure Interaction Method[J]. 2012, 46(5): 120-126.DOI:
Numerical Simulations on Liquid Sloshing in the Moving Tank During Braking of a Tank Truck by Fluid Structure Interaction Method
The study on the liquid sloshing in a moving tank with partially filled liquid is very important to ensure the safety in the tank truck transport. A numerical simulation for the interaction between the baffle and gas-fluid flow in the process of braking was performed by building a simplified model of a moving tank with a piece of baffle. The effects of different baffle materials and different filling ratios on the force which is exerted on the baffle and the tank wall were analyzed. The time history of the baffle stress was obtained with the two-way fluid structure interaction method. The results show that the force exerted on the end wall of the tank increases with the filling ratio. When the filling ratio is 0.8
the force exerted on the whole tank has the maximum value. For the baffle with different materials
the smaller baffle deformation will lead to slight influence on the force exerted on the end wall and the whole tank. In addition
the maximum baffle shear stress decreases nonlinearly with an increase in the material shear modulus.
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