Numerical Simulation of Two-dimensional Vortex-Induced Vibration of Circular Cylinder Using Least Square Moving Particle Semi-Implicit Method – Vortex Particle Method (LSMPS-VPM)
Keywords:
particle-based simulation, least square moving particle semi-implicit, vortex-induced vibrationAbstract
Interaction between fluid and structure is a complex problem that is often encountered in various engineering fields. One of the fluid-structure interaction (FSI) phenomena is vortex-induced vibration (VIV). In this research, a particle-based numerical method known as the Least square moving particle semi-implicit – Vortex particle method (LSMPS-VPM) was improved to be able to simulate the VIV of a solid rigid object. LSMPS-VPM utilized multi-resolution particles, LSMPS spatial operator, and the Brinkmann penalization method for directly solving Navier-Stokes equations in vorticity form. The LSMPS-VPM was improved by adding a VIV solver which employed the 4^th order Runge-Kutta method to solve the one-degree-of-freedom vibration equation. The numerical method was tested with two benchmark problems: the flow past a static two-dimensional circular cylinder and the VIV of a two-dimensional circular cylinder. The results of the static simulation show that the present method is already capable of producing results that agree with past simulations. On the other hand, from the results of the VIV simulation, the present method is capable of predicting the motion of the solid body immersed in the fluid, however, some parameters still show inaccurate results compared with the references.
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