ExaFMM is a highly scalable implementation of the Fast Multipole Method (FMM) – an O(N) algorithm for solving N-body interaction with applications in gravitational and electrostatic simulations. The authors report scaling on large systems with O(100k) cores with support for MPI, OpenMP and SIMD vectorization. The library also includes GPU kernels capable of running on a multi-GPU system. The objective of the project is to enable the use of the ExaFMM solver in the MIC architecture by performing porting, verification, scalability testing and providing configuration suggestions to its potential users
The preliminary results from a new portable, scalable, parallel implementation of the dynamic multil...
The approximate computation of all gravitational forces between N interacting particles via the fast...
Solving an N-body problem, electrostatic or gravitational, is a crucial task and the main computatio...
Poster featured at the NVIDIA exhibit booth in the Supercomputing Conference, November 2011, Seattle...
Exafmm-t is a kernel-independent fast multipole method library for solving N-body problems. It provi...
Among the algorithms that are likely to play a major role in future exascale computing, the fast mul...
<b>Invited Lecture at the SIAM <i>"Encuentro Nacional de Ingeniería Matemática,"</i> at Pontificia U...
<p>This is a z-fold brochure, prepared to accompany our poster on the exaFMM code, presented at the ...
International audienceScalFMM (Parallel Fast Multipole Library for Large Scale Simulations) offers a...
This thesis presents a top to bottom analysis on designing and implementing fast algorithms for curr...
A tuned and scalable fast multipole method as a preeminent algorithm for exascale systems Rio Yokota...
Fast summation methods like the FMM are the backbone of a multitude of simulations in MD, astrophysi...
The simulation of N-body system has been used extensively in biophysics and chemistry to investigate...
International audienceLearn about the fast multipole method (FMM) and its optimization on NVIDIA GPU...
In order to solve large mathematical formulations of real-life electromagnetic problems, we must use...
The preliminary results from a new portable, scalable, parallel implementation of the dynamic multil...
The approximate computation of all gravitational forces between N interacting particles via the fast...
Solving an N-body problem, electrostatic or gravitational, is a crucial task and the main computatio...
Poster featured at the NVIDIA exhibit booth in the Supercomputing Conference, November 2011, Seattle...
Exafmm-t is a kernel-independent fast multipole method library for solving N-body problems. It provi...
Among the algorithms that are likely to play a major role in future exascale computing, the fast mul...
<b>Invited Lecture at the SIAM <i>"Encuentro Nacional de Ingeniería Matemática,"</i> at Pontificia U...
<p>This is a z-fold brochure, prepared to accompany our poster on the exaFMM code, presented at the ...
International audienceScalFMM (Parallel Fast Multipole Library for Large Scale Simulations) offers a...
This thesis presents a top to bottom analysis on designing and implementing fast algorithms for curr...
A tuned and scalable fast multipole method as a preeminent algorithm for exascale systems Rio Yokota...
Fast summation methods like the FMM are the backbone of a multitude of simulations in MD, astrophysi...
The simulation of N-body system has been used extensively in biophysics and chemistry to investigate...
International audienceLearn about the fast multipole method (FMM) and its optimization on NVIDIA GPU...
In order to solve large mathematical formulations of real-life electromagnetic problems, we must use...
The preliminary results from a new portable, scalable, parallel implementation of the dynamic multil...
The approximate computation of all gravitational forces between N interacting particles via the fast...
Solving an N-body problem, electrostatic or gravitational, is a crucial task and the main computatio...