In this paper we describe different applications we have ported to Intel Xeon Phi architectures, analyzing their performance. The applications cover a wide range. Alya, which is an HPC-based multi-physics code for parallel computers capable of solving coupled engineering problems in non-structured meshes. Waris, which is a simulation code for Cartesian meshes, that uses efficiently well-ordered data and well-balanced parallel threads. The last analysis is performed for a cornerstone of several simulation codes, a Cholesky decomposition method. The results are very promising, showing the great flexibility and power of Xeon Phi architectures
Abstract. We report on our investigations into the viability of the ARM processor and the Intel Xeon...
Abstract—Accelerators are used in about 13 % of the current Top500 List. Supercomputers leveraging a...
CP2K is an important European program for atomistic simulation for many users of the PRACE Research ...
This whitepaper studies the execution speed of the Intel Xeon Phi coprocessor when running a molecul...
Abstract—This paper presents preliminary performance com-parisons of parallel applications developed...
Intel's Xeon Phi combines the parallel processing power of a many-core accelerator with the programm...
2016The Intel Xeon Phi is a relative newcomer to the scientific computing scene. In the recent year...
The Intel R Xeon PhiTM is the first processor based on Intel’s MIC (Many Integrated Cores) architect...
As Moore s law continues, processors keep getting more cores packed together on the chip. This thesi...
The goal of this lab exercise is to develop a parallel compute-intensive application to be run on an...
Intel\u27s Xeon Phi coprocessor has successfully proved its capability by being used in Tianhe-2 and...
We report on our investigations into the viability of the ARM processor and the Intel Xeon Phi co-pr...
Producción CientíficaIntel Xeon Phi accelerators are one of the newest devices used in the field of ...
With at least 60 processing cores, the Xeon-Phi coprocessor is a truly multicore architecture, which...
Partial Differential Equations (PDEs) are widely used to simulate many scenarios in science and engi...
Abstract. We report on our investigations into the viability of the ARM processor and the Intel Xeon...
Abstract—Accelerators are used in about 13 % of the current Top500 List. Supercomputers leveraging a...
CP2K is an important European program for atomistic simulation for many users of the PRACE Research ...
This whitepaper studies the execution speed of the Intel Xeon Phi coprocessor when running a molecul...
Abstract—This paper presents preliminary performance com-parisons of parallel applications developed...
Intel's Xeon Phi combines the parallel processing power of a many-core accelerator with the programm...
2016The Intel Xeon Phi is a relative newcomer to the scientific computing scene. In the recent year...
The Intel R Xeon PhiTM is the first processor based on Intel’s MIC (Many Integrated Cores) architect...
As Moore s law continues, processors keep getting more cores packed together on the chip. This thesi...
The goal of this lab exercise is to develop a parallel compute-intensive application to be run on an...
Intel\u27s Xeon Phi coprocessor has successfully proved its capability by being used in Tianhe-2 and...
We report on our investigations into the viability of the ARM processor and the Intel Xeon Phi co-pr...
Producción CientíficaIntel Xeon Phi accelerators are one of the newest devices used in the field of ...
With at least 60 processing cores, the Xeon-Phi coprocessor is a truly multicore architecture, which...
Partial Differential Equations (PDEs) are widely used to simulate many scenarios in science and engi...
Abstract. We report on our investigations into the viability of the ARM processor and the Intel Xeon...
Abstract—Accelerators are used in about 13 % of the current Top500 List. Supercomputers leveraging a...
CP2K is an important European program for atomistic simulation for many users of the PRACE Research ...