Multipole matrix of the Green function of the Laplace equation defined by double convolution of two spherical harmonics with the Green function of the Laplace equation is calculated. The multipole matrix elements in electrostatics describe potential on a sphere which is produced by a charge distributed on the surface of a different (possibly overlapping) sphere of the same radius. We calculate the multipole matrix from its Fourier trans-form. An essential part of our considerations is simplification of the three-dimensional Fourier transformation of a multipole matrix by its rotational symmetry to the one-dimensional Hankel transformation. DOI:10.5506/APhysPolB.46.1487 PACS numbers: 02.30.Uu, 41.20.C
The diagonalization of the translation matrix is crucial in reducing the solution time in the fast m...
AbstractThe double-layer potential integral operator and the electrostatic integral operator in R3 o...
In this paper we prove that any conformal transformation of a wave can be produced via a suitably ar...
It has recently been suggested to represent functions on the sphere by a " multipole vector decompos...
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General expressions for the electrostatic potential in perfect multipole lattices are given as expan...
Any eigenfunction of the Laplacian on a sphere is given in terms of a unique set of directions: thes...
Abstract Multipole expansion is a powerful technique used in many-body physics to solve dynamical pr...
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This thesis deals with solutions to Laplace's equation in 3D, finding new relationships between solu...
In electromagnetic boundary value problems integral equations involving the free space Green functio...
The multipole expansion of the retarded interatomic dispersion energy is evaluated in the spherical-...
Contains fulltext : mmubn000001_001374443.pdf (publisher's version ) (Open Access)...
The multipole expansion of the retarded interatomic dispersion energy is evaluated in the spherical-...
The fast multipole method (FMM) is an efficient algorithm for calculating electrostatic interactions...
The diagonalization of the translation matrix is crucial in reducing the solution time in the fast m...
AbstractThe double-layer potential integral operator and the electrostatic integral operator in R3 o...
In this paper we prove that any conformal transformation of a wave can be produced via a suitably ar...
It has recently been suggested to represent functions on the sphere by a " multipole vector decompos...
This thesis is concerned with electrostatic boundary problems and how their solutions behave dependi...
General expressions for the electrostatic potential in perfect multipole lattices are given as expan...
Any eigenfunction of the Laplacian on a sphere is given in terms of a unique set of directions: thes...
Abstract Multipole expansion is a powerful technique used in many-body physics to solve dynamical pr...
Abstract. We present a matrix interpretation of the three-dimensional fast multipole method (FMM). T...
This thesis deals with solutions to Laplace's equation in 3D, finding new relationships between solu...
In electromagnetic boundary value problems integral equations involving the free space Green functio...
The multipole expansion of the retarded interatomic dispersion energy is evaluated in the spherical-...
Contains fulltext : mmubn000001_001374443.pdf (publisher's version ) (Open Access)...
The multipole expansion of the retarded interatomic dispersion energy is evaluated in the spherical-...
The fast multipole method (FMM) is an efficient algorithm for calculating electrostatic interactions...
The diagonalization of the translation matrix is crucial in reducing the solution time in the fast m...
AbstractThe double-layer potential integral operator and the electrostatic integral operator in R3 o...
In this paper we prove that any conformal transformation of a wave can be produced via a suitably ar...