International audienceThis paper illustrates how GPU computing can be used to accelerate computational fluid dynamics (CFD) simulations. For sparse linear systems arising from finite volume discretization, we evaluate and optimize the performance of Conjugate Gradient (CG) routines designed for manycore accelerators and compare against an industrial CPU-based implementation. We also investigate how the recent advances in preconditioning, such as iterative Incomplete Cholesky (IC, as symmetric case of ILU) preconditioning, match the requirements for solving real world problems
International audienceWhereas most parallel High Performance Computing (HPC) numerical libaries hav...
AbstractWe propose a parallel implementation of the Preconditioned Conjugate Gradient algorithm on a...
We investigate what the graphics processing units (GPUs) have to offer compared to the central proce...
International audienceThis paper illustrates how GPU computing can be used to accelerate computation...
International audienceThis paper illustrates how GPU computing can be used to accelerate computation...
Many computer graphics applications require high-intensity numerical simulation. We show that such c...
Many computer graphics applications require high-intensity numerical simulation. We show that such c...
Many computer graphics applications require high-intensity numerical simulation. We show that such c...
Many computer graphics applications require high-intensity numerical simulation. We show that such ...
Many computer graphics applications require high-intensity numerical simulation. We show that such c...
AbstractComputational Fluid Dynamics (CFD) utilizes numerical solutions of Partial Differential Equa...
A study of the fundamental obstacles to accelerate the preconditioned conjugate gradient method on m...
CFD computations are very important in the design process of new products that interact with fluids....
AbstractComputational Fluid Dynamics (CFD) utilizes numerical solutions of Partial Differential Equa...
CFD computations are very important in the design process of new products that interact with fluids....
International audienceWhereas most parallel High Performance Computing (HPC) numerical libaries hav...
AbstractWe propose a parallel implementation of the Preconditioned Conjugate Gradient algorithm on a...
We investigate what the graphics processing units (GPUs) have to offer compared to the central proce...
International audienceThis paper illustrates how GPU computing can be used to accelerate computation...
International audienceThis paper illustrates how GPU computing can be used to accelerate computation...
Many computer graphics applications require high-intensity numerical simulation. We show that such c...
Many computer graphics applications require high-intensity numerical simulation. We show that such c...
Many computer graphics applications require high-intensity numerical simulation. We show that such c...
Many computer graphics applications require high-intensity numerical simulation. We show that such ...
Many computer graphics applications require high-intensity numerical simulation. We show that such c...
AbstractComputational Fluid Dynamics (CFD) utilizes numerical solutions of Partial Differential Equa...
A study of the fundamental obstacles to accelerate the preconditioned conjugate gradient method on m...
CFD computations are very important in the design process of new products that interact with fluids....
AbstractComputational Fluid Dynamics (CFD) utilizes numerical solutions of Partial Differential Equa...
CFD computations are very important in the design process of new products that interact with fluids....
International audienceWhereas most parallel High Performance Computing (HPC) numerical libaries hav...
AbstractWe propose a parallel implementation of the Preconditioned Conjugate Gradient algorithm on a...
We investigate what the graphics processing units (GPUs) have to offer compared to the central proce...