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A Computational Algorithm for Second-Moment Closure Turbulence Modelling

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Abstract

A computational formulation is proposed for second-moment closure turbulence models, especially suited to models intended to ensure physical realizability. It enables to cast the quite complicated model equations in a compact form. It is specifically applied here to a two-dimensional parabolized flow, though it lends itself to extension to more complex flows. An effective computational algorithm is proposed, based on a staggered grid and a block tridiagonal solver. The algorithm is applied to a turbulent mixing layer, and the comparison between the predictions obtained by standard modelling tools and a realizable second-moment closure clearly points out the superiority of the latter.

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Lentini, D. A Computational Algorithm for Second-Moment Closure Turbulence Modelling. Meccanica 33, 29–46 (1998). https://doi.org/10.1023/A:1004295401311

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  • DOI: https://doi.org/10.1023/A:1004295401311

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