Abstract. This paper introduces a fast method for the application of sur-face integral operators which typically arise in potential theory, elasticity, and scattering. The principal idea is to decompose the Green's function into a smooth and a local part. The local part is expanded in a series in the mol-li cation parameter; evaluating the truncated series amounts to multiplying with a diagonal matrix. A modication of Fast Multipole Method is used to compute the potential of smooth kernels. The outline of the algorithms and some preliminary numerical results are presented
We present three new families of fast algorithms for classical potential theory, based on Ewald summ...
The fast multipole method (FMM) speeds up the matrix-vector multiply in the conjugate gradient metho...
Evaluating the energy of a system of N bodies interacting via a pairwise potential is naïvely an O(N...
A number of physics problems may be cast in terms of Hilbert-Schmidt integral equations. In many cas...
Abstract. A version of the fast multipole method (FMM) is described for charge distributions on the ...
A recently introduced potential integral equations for stable analysis of low-frequency problems inv...
We present efficient and accurate solutions of scattering problems involving dense discretizations w...
A new technique is presented for accelerating the fast multipole method, allowing rapid solution of ...
We present a new fast multipole method for particle simulations. The main feature of our algorithm i...
For more than two decades, several forms of fast multipole methods have been extremely successful in...
We study integral methods applied to the resolution of the Maxwell equations where the linear system...
A number of computational techniques are described that reduce the effort related to the continuous ...
The fast multipole method is used to solve the electromagnetic scattering from three-dimensional con...
The fast multipole method (FMM) was originally developed to reduce the computation time and memory r...
A novel simple to implement technique to accelerate the method of moments applied to surface integra...
We present three new families of fast algorithms for classical potential theory, based on Ewald summ...
The fast multipole method (FMM) speeds up the matrix-vector multiply in the conjugate gradient metho...
Evaluating the energy of a system of N bodies interacting via a pairwise potential is naïvely an O(N...
A number of physics problems may be cast in terms of Hilbert-Schmidt integral equations. In many cas...
Abstract. A version of the fast multipole method (FMM) is described for charge distributions on the ...
A recently introduced potential integral equations for stable analysis of low-frequency problems inv...
We present efficient and accurate solutions of scattering problems involving dense discretizations w...
A new technique is presented for accelerating the fast multipole method, allowing rapid solution of ...
We present a new fast multipole method for particle simulations. The main feature of our algorithm i...
For more than two decades, several forms of fast multipole methods have been extremely successful in...
We study integral methods applied to the resolution of the Maxwell equations where the linear system...
A number of computational techniques are described that reduce the effort related to the continuous ...
The fast multipole method is used to solve the electromagnetic scattering from three-dimensional con...
The fast multipole method (FMM) was originally developed to reduce the computation time and memory r...
A novel simple to implement technique to accelerate the method of moments applied to surface integra...
We present three new families of fast algorithms for classical potential theory, based on Ewald summ...
The fast multipole method (FMM) speeds up the matrix-vector multiply in the conjugate gradient metho...
Evaluating the energy of a system of N bodies interacting via a pairwise potential is naïvely an O(N...