We describe a novel parallel steady-state solver that uses NVIDIA's Compute Unified Device Architecture (CUDA) library to perform calculations on a graphics processing unit (GPU). We demonstrate speed-ups of over 8 times compared with a CPU-only solver. We also discuss a parallel implementation which runs on multiple GPUs on separate machines, and explain how we deal with allocating appropriate amounts of work to heterogeneous computing resources
The future of computation is the GPU, i.e. the Graphical Processing Unit. The graphics cards have sh...
This work deals with the solution of large non-Hermitian linear systems on desktop workstations with...
Abstract. Since theadvent ofprogrammable graphicsprocessors (GPUs) their computational powers have b...
Abstract—We describe a novel parallel steady-state solver that uses NVIDIA’s Compute Unified Device ...
Abstract. This contribution shows how unsupervised Markovian segmentation techniques can be accelera...
Abstract. Molecular dynamics simulations are a common and often repeated task in molecular biology. ...
AbstractThe increasing computing power of graphics processing units (GPU) has motivated the use of G...
As the processing power available in computers grows, so do the applications for using that power fo...
Motivation: Mathematical modelling is central to systems and synthetic biology. Using simulations to...
Recent advances in graphics processing units (GPUs) have exposed the GPU as an at- tractive platform...
We discuss an implementation of molecular dynamics (MD) simulations on a graphic processing unit (GP...
Markov clustering is becoming a key algorithm within bioinformatics for determining clusters in netw...
<p>In pixel-wise parametric imaging applications, a large amount of experimental data for all image ...
The main purpose of this work was to develop a more time efficient solution to the Lotka- Volterra m...
Graphics processor units (GPU) that are originally designed for graphics rendering have emerged as m...
The future of computation is the GPU, i.e. the Graphical Processing Unit. The graphics cards have sh...
This work deals with the solution of large non-Hermitian linear systems on desktop workstations with...
Abstract. Since theadvent ofprogrammable graphicsprocessors (GPUs) their computational powers have b...
Abstract—We describe a novel parallel steady-state solver that uses NVIDIA’s Compute Unified Device ...
Abstract. This contribution shows how unsupervised Markovian segmentation techniques can be accelera...
Abstract. Molecular dynamics simulations are a common and often repeated task in molecular biology. ...
AbstractThe increasing computing power of graphics processing units (GPU) has motivated the use of G...
As the processing power available in computers grows, so do the applications for using that power fo...
Motivation: Mathematical modelling is central to systems and synthetic biology. Using simulations to...
Recent advances in graphics processing units (GPUs) have exposed the GPU as an at- tractive platform...
We discuss an implementation of molecular dynamics (MD) simulations on a graphic processing unit (GP...
Markov clustering is becoming a key algorithm within bioinformatics for determining clusters in netw...
<p>In pixel-wise parametric imaging applications, a large amount of experimental data for all image ...
The main purpose of this work was to develop a more time efficient solution to the Lotka- Volterra m...
Graphics processor units (GPU) that are originally designed for graphics rendering have emerged as m...
The future of computation is the GPU, i.e. the Graphical Processing Unit. The graphics cards have sh...
This work deals with the solution of large non-Hermitian linear systems on desktop workstations with...
Abstract. Since theadvent ofprogrammable graphicsprocessors (GPUs) their computational powers have b...