Abstract
In process industry particulate flow handling is very important. The aim of simulating particulate flow is one of the actual top level research topics. Driven by the wish for a readily available and predictive description of these processes many mathematical models for simulating dense and dilute particulate flow have been proposed.
Among these models Eulerian and Lagrangian based particle models are most common. These models have been additionally augmented by sub-models in order to picture effects like particle rotation, rough wall reflections or inter-particle collisions. In 2010 a new Hybrid-Model, called EUgran+ was introduced (1). This Hybrid-Model is based on an Eulerian granular model. EUgran+ uses additional information from Lagrangian tracer particles. New in (1) is the combination of the Eulerian and Lagrangian model, so that EUgran+ is useable for dense and dilute particulate flows. The Hybrid-Model was revised in (2) and optimized for cases with dense and dilute particulate flow regions in one geometry.
In this paper the EUgran+ model is adapted and prepared for dense and dilute poly-disperse particulate flow simulations.
| Original language | English |
|---|---|
| Title of host publication | 11th World Filtration Congress 2012 |
| Pages | G24 |
| Number of pages | 14 |
| Publication status | Published - Apr 2012 |
Fields of science
- 103032 Fluid mechanics
- 203 Mechanical Engineering
- 203016 Measurement engineering
- 203024 Thermodynamics
- 211104 Metallurgy
- 204006 Mechanical process engineering
- 204007 Thermal process engineering
- 103043 Computational physics
JKU Focus areas
- Computation in Informatics and Mathematics
- Mechatronics and Information Processing
- Engineering and Natural Sciences (in general)
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