Low-Dissipation Simulation Methods and Models for Turbulent Subsonic Flow

被引:13
|
作者
Rozema, Wybe [1 ,2 ]
Verstappen, Roel W. C. P. [1 ]
Veldman, Arthur E. P. [1 ]
Kok, Johan C. [2 ]
机构
[1] Univ Groningen, Bernoulli Inst, POB 407, NL-9700 AK Groningen, Netherlands
[2] Netherlands Aerosp Ctr NLR, Amsterdam, Netherlands
关键词
65M08; 65M12; 76F65; 76F06; 76G25; FINITE-DIFFERENCE SCHEMES; DIRECT NUMERICAL-SIMULATION; LARGE-EDDY SIMULATION; SYMMETRY-PRESERVING DISCRETIZATION; NAVIER-STOKES; COMPUTATIONAL AEROACOUSTICS; COMPRESSIBLE TURBULENCE; VORTEX BREAKDOWN; GAS-DYNAMICS; ENERGY;
D O I
10.1007/s11831-018-09307-7
中图分类号
TP39 [计算机的应用];
学科分类号
081203 ; 0835 ;
摘要
The simulation of turbulent flows by means of computational fluid dynamics is highly challenging. The costs of an accurate direct numerical simulation (DNS) are usually too high, and engineers typically resort to cheaper coarse-grained models of the flow, such as large-eddy simulation (LES). To be suitable for the computation of turbulence, methods should not numerically dissipate the turbulent flow structures. Therefore, energy-conserving discretizations are investigated, which do not dissipate energy and are inherently stable because the discrete convective terms cannot spuriously generate kinetic energy. They have been known for incompressible flow, but the development of such methods for compressible flow is more recent. This paper will focus on the latter: LES and DNS for turbulent subsonic flow. A new theoretical framework for the analysis of energy conservation in compressible flow is proposed, in a mathematical notation of square-root variables, inner products, and differential operator symmetries. As a result, the discrete equations exactly conserve not only the primary variables (mass, momentum and energy), but also the convective terms preserve (secondary) discrete kinetic and internal energy. Numerical experiments confirm that simulations are stable without the addition of artificial dissipation. Next, minimum-dissipation eddy-viscosity models are reviewed, which try to minimize the dissipation needed for preventing sub-grid scales from polluting the numerical solution. A new model suitable for anisotropic grids is proposed: the anisotropic minimum-dissipation model. This model appropriately switches off for laminar and transitional flow, and is consistent with the exact sub-filter tensor on anisotropic grids. The methods and models are first assessed on several academic test cases: channel flow, homogeneous decaying turbulence and the temporal mixing layer. As a practical application, accurate simulations of the transitional flow over a delta wing have been performed.
引用
收藏
页码:299 / 330
页数:32
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