This thesis describes the Fast Multipole Method (FMM). The method reduces the complexity of the Coulomb problem from O(N$^{2}$) to O(N) and is therefore called a fast Coulomb solver. The FMM is advantageous for the calculation of pairwise interactions, especially for large systems. This work is divided in three parts. The first part addresses the fundamentals of the FMM. The second part discusses the force calculation with the gradient. Two different implementations of the gradient are discussed. The last part shows the parallelization of the FMM. The procedure is described exemplarily for one pass
Solving an N-body problem, electrostatic or gravitational, is a crucial task and the main computatio...
Abstract. We present a matrix interpretation of the three-dimensional fast multipole method (FMM). T...
We have implemented the fast multipole method (FMM) on a special-purpose computer GRAPE (GRAvity piP...
AbstractThis paper presents a parallel version of the fast multipole method (FMM). The FMM is a rece...
A number of physics problems can be modeled by a set of N elements which have pair-wise interactions...
The fast multipole method (FMM) evaluates Coulomb interactions with linearly scaling computational c...
A number of computational techniques are described that reduce the effort related to the continuous ...
A number of physics problems may be cast in terms of Hilbert-Schmidt integral equations. In many cas...
We study integral methods applied to the resolution of the Maxwell equations where the linear system...
For more than two decades, several forms of fast multipole methods have been extremely successful in...
The fast multipole method is an algorithm first developed to approximately solve the N-body problem ...
We report our efforts for the solution of large electromagnetics problems accurately and efficiently...
This program has been imported from the CPC Program Library held at Queen's University Belfast (1969...
Based on a parallel scalable library for Coulomb interactions in particle systems, a comparison betw...
We present a new adaptive fast multipole algorithm and its parallel implementation. The algorithm is...
Solving an N-body problem, electrostatic or gravitational, is a crucial task and the main computatio...
Abstract. We present a matrix interpretation of the three-dimensional fast multipole method (FMM). T...
We have implemented the fast multipole method (FMM) on a special-purpose computer GRAPE (GRAvity piP...
AbstractThis paper presents a parallel version of the fast multipole method (FMM). The FMM is a rece...
A number of physics problems can be modeled by a set of N elements which have pair-wise interactions...
The fast multipole method (FMM) evaluates Coulomb interactions with linearly scaling computational c...
A number of computational techniques are described that reduce the effort related to the continuous ...
A number of physics problems may be cast in terms of Hilbert-Schmidt integral equations. In many cas...
We study integral methods applied to the resolution of the Maxwell equations where the linear system...
For more than two decades, several forms of fast multipole methods have been extremely successful in...
The fast multipole method is an algorithm first developed to approximately solve the N-body problem ...
We report our efforts for the solution of large electromagnetics problems accurately and efficiently...
This program has been imported from the CPC Program Library held at Queen's University Belfast (1969...
Based on a parallel scalable library for Coulomb interactions in particle systems, a comparison betw...
We present a new adaptive fast multipole algorithm and its parallel implementation. The algorithm is...
Solving an N-body problem, electrostatic or gravitational, is a crucial task and the main computatio...
Abstract. We present a matrix interpretation of the three-dimensional fast multipole method (FMM). T...
We have implemented the fast multipole method (FMM) on a special-purpose computer GRAPE (GRAvity piP...