Sloshing Tank CFD Simulation
Sloshing is a phenomenon caused by the periodic movement of the free surface of the fluid inside the tank, which creates maximum pressure points (shock loads) on the walls.
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Experimental and numerical studies show the importance of the effect of fluid sloshing within the tank on the maneuverability of the floating devices like ships, boats, and so on. Among the most important laboratory studies, we can point:
1- Measuring the sloshing dynamics of a tank
2. Experimental-Statistical Study of Sloshing Wave Impact Loads in the Shell Tank Model
3. Verification of numerical sloshing results of the floating device containing natural gas tank using an experimental result on a two-dimensional section of the reservoir at a scale of 0.1 at two different filling heights.
4. Investigate the maximum long-term sloshing pressures applied to the shell tank in order to consider the effects of the vibration caused by the bump.
5- Experimental study of pressure distribution due to the liquid sloshing in a rectangular tank
The initial stage of any simulation is devoted to the design of solution geometry or computational domain modeling. The computational domain in Sloshing CFD simulation is a tank containing LNG fuel and air. The tank uses several series of joints and inner walls to prevent fluid movement. This results in less friction of the fluid layers over each other, as the inertia of the fluid moving inside the tank can have an effect on the fuel carrier vehicle. The model of the 2-D tank is modeled Design Modeler software. The tank geometry is 1 m long and 0.7 m wide. Six rows of 0.35 m high and 0.04 m thick were used to separate the fluid layers. The geometry is divided for structured mesh applications.
Since ANSYS Fluent software uses the finite volume method, it is important to have a high quality mesh. A structured mesh is done for sloshing tank by ANSYS Meshing software.
Once the mesh is loaded onto the ANSYS Fluent software, the solution process begins. This process involves defining the problem to the software.
|Solver settings (sloshing tank):|
|Time setting:||Transient : Time-step : 0.005 s|
|Gravity:||On : -9.81 m/s2 in Y-direction|
|Zone:||Frame Motion UDF
N3V_S(origin,=,0.0); /* default values, line could be omitted */
N3V_D(axis,=,0.0,0.0,1.0); /* default values, line could be omitted */
|Boundary conditions:||Walls: No-slip|
|Operating Condition:||Reference Pressure Point:
X : 0.00 m
Y : 0.25 m
Gravity: On : -9.81 m/s2 in Y-direction
|Solution methods for sloshing CFD simulation:||SIMPLE|
|Pressure interpolation scheme:||PRESTO|
|Level set implementation:||QUICK|
|Initialization:||Standard All Zero
Region X: -10 m to +10 m Y: 0 to 0.25 m
Pressure static : Rhow*g*(1-y/Hw)
Water VF : 1.0
|Multi-phase (sloshing tank) :|
|Implicit Body Force:||On|
|Open channel flow:||Off|
|Phase-Interaction (sloshing tank):|
|Surface tension Coeff (air-water):||0.0725 n/m|
|Material used for sloshing tank CFD simulation :|
|Fluid:||Air : Primary phase
Water : Secondary phase
|Monitor :||Point: Static Pressure: 0.0525 m|
This table is a summary of Sloshing Tank CFD Simulation.
All files, including Geometry, Mesh, Case & Data, are available in Simulation File. By the way, Training File presents how to solve the problem and extract all desired results.
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