Three-dimensional vortex methods for particle-laden flows with two-way coupling. (English) Zbl 1014.76067
From the summary: This paper presents a three-dimensional viscous vortex method for simulation of particulate flows with two-way coupling. The flow is computed using Lagrangian vortex elements advected with local velocity, while their strength is modified to account for viscous diffusion, vortex stretching, and generating vorticity induced by the particles. The solid particles move according to viscous drag and gravity, creating vorticity which is discretised using vortex elements. This method adaptively tracks the evolution of vorticity field and the generation of new computational elements to account for the vorticity source term. A key aspect of the present scheme is the remeshing of computational elements to adaptively accommodate the production of vorticity induced by solid particles, and to ensure sufficient support for the proper resolution of diffusion equation.
MSC:
| 76M23 | Vortex methods applied to problems in fluid mechanics |
| 76T15 | Dusty-gas two-phase flows |
| 76R50 | Diffusion |
Keywords:
particle-mesh interpolation; vortex-in-cell algorithm; three-dimensional particle blob; particle-laden flows; three-dimensional viscous vortex method; two-way coupling; Lagrangian vortex elements; viscous diffusion; vortex stretching; viscous drag; gravity; remeshing; production of vorticityReferences:
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