Educational Requirements for Parallel Computing and Computational Fluid Dynamics

Author(s):  
K.J. Badcock ◽  
B.E. Richards
Author(s):  
J W Chew ◽  
N J Hills

Use of large-scale computational fluid dynamics (CFD) models in aeroengine design has grown rapidly in recent years as parallel computing hardware has become available. This has reached the point where research aimed at the development of CFD-based ‘virtual engine test cells’ is underway, with considerable debate of the subject within the industrial and research communities. The present article considers and illustrates the state-of-the art and prospects for advances in this field. Limitations to CFD model accuracy, the need for aero-thermo-mechanical analysis through an engine flight cycle, coupling of numerical solutions for solid and fluid domains, and timescales for capability development are considered. While the fidelity of large-scale CFD models will remain limited by turbulence modelling and other issues for the foreseeable future, it is clear that use of multi-scale, multi-physics modelling in engine design will expand considerably. Development of user-friendly, versatile, efficient programs and systems for use in a massively parallel computing environment is considered a key issue.


Author(s):  
Yuntian Ge ◽  
Rui Zhang ◽  
Xiuling Wang

The objective of this paper is to analysis the wind farm properties in suburban environment by Computational Fluid Dynamics (CFD) simulations. In order to do the simulation of a suburban environment, geometry model was built and mesh was generated by commercial software GAMBIT®. Simulation was conducted by FLUENT®. Parallel computing technique was applied in simulation. Simulation results showed different kinds of wind properties such as path lines, velocity distributions, turbulence intensity, etc., and it is also indicated that parallel computing is an appropriate way to conduct wind farm simulation [1].


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