Publisher Summary This chapter discusses the parallelization of a Navier–Stokes solver on the multiprocessors of different architectures and programming models, a system with shared memory, and several systems with distributed-memory. For communication, all multiprocessors use a message based model and are reproduced on the multiprocessor architecture by means of available communication models. This is done in such a way that only a machine specific interface has to be exchanged. The results obtained by the parallel Navier–Stokes solver on multiprocessor systems (transonic flow around a profile) are compared with those of workstations and super vector computers. The developed communication model has proofed as a flexible, reliable, and efficient implementation. High speed-ups are obtained on any multiprocessor because there are workstation clusters or massive parallel systems. It allows the computation of a wide range of block-structured grids and is easily transferable.
[1]
Siegfried Wagner,et al.
Dataparallel Navier- Stokes Solutions OnDifferent Multiprocessors
,
1970
.
[2]
R. Schwane,et al.
An Implicit Flux-vector Splitting Scheme for the Computation of Viscous Hypersonic Flows
,
1989
.
[3]
Albrecht Eberle,et al.
Enhanced numerical inviscid and viscous fluxes for cell centered finite volume schemes
,
1991
.
[4]
H. Lomax,et al.
Thin-layer approximation and algebraic model for separated turbulent flows
,
1978
.
[5]
C. Mundt,et al.
New, accurate, vectorized approximations of state surfaces for the thermodynamic and transport properties of equilibrium air
,
1991
.