An error bound of the multilevel adaptive cross approximation (MLACA 1, which is a multilevel version of the adaptive cross approximation-singular value decomposition (ACA-SVD), is rigorously derived. For compressing an off-diagonal submatrix of the method of moments MAD impedance matrix with a binary tree, the L-level MIACA includes L + 1 steps, and each step includes 2(L) ACA-SVD decompositions. If the relative Frobenius norm error of the ACA-SVD used in the MLACA is smaller than epsilon, the rigorous proof in this communication shows that the relative Frobenius norm error of the L-Ievel MLACA is smaller than (1 + epsilon)(L+1) - 1. In practical applications, the error bound of the MLACA can be approximated as epsilon(L + 1), because epsi...
This paper concerns characterizations of approximation classes associated to adaptive finite element...
The matrix-vector multiplication encountered in the iterative solution of scattering problems can be...
Abstract. A formal mean square error expansion (MSE) is derived for Euler–Maruyama nu-merical soluti...
An error bound of the multilevel adaptive cross approximation (MLACA 1, which is a multilevel versio...
The Multilevel Adaptive cross Approximation (MLACA), an algorithm to solve MoM electromagnetic probl...
In recent years, several methods have been developed for accelerating the iterative solution of the...
This article presents a low-rank decomposition algorithm based on subsampling of matrix entries. The...
This paper proposes an adaptation of the conventional ACA algorithm for block-wise impedance matrix ...
This contribution proposes an adapted version of the popular Adaptive Cross Approximation ...
The adaptive cross approximation (ACA) algorithm has been used in many fast Integral Equation solver...
© 2017 IEEE. Personal use of this material is permitted. Permission from IEEE must be obtained for a...
This paper presents a modification of the adaptive cross approximation (ACA) algorithm for accelerat...
This contribution identifies an often ignored source of uncertainty in the accuracy of the Adaptive ...
Abstract. Many algebraic multilevel methods for solving linear systems assume that the slow-to-conve...
The adaptive cross approximation (ACA) algorithm [2, 3] provides a means to com-pute data-sparse app...
This paper concerns characterizations of approximation classes associated to adaptive finite element...
The matrix-vector multiplication encountered in the iterative solution of scattering problems can be...
Abstract. A formal mean square error expansion (MSE) is derived for Euler–Maruyama nu-merical soluti...
An error bound of the multilevel adaptive cross approximation (MLACA 1, which is a multilevel versio...
The Multilevel Adaptive cross Approximation (MLACA), an algorithm to solve MoM electromagnetic probl...
In recent years, several methods have been developed for accelerating the iterative solution of the...
This article presents a low-rank decomposition algorithm based on subsampling of matrix entries. The...
This paper proposes an adaptation of the conventional ACA algorithm for block-wise impedance matrix ...
This contribution proposes an adapted version of the popular Adaptive Cross Approximation ...
The adaptive cross approximation (ACA) algorithm has been used in many fast Integral Equation solver...
© 2017 IEEE. Personal use of this material is permitted. Permission from IEEE must be obtained for a...
This paper presents a modification of the adaptive cross approximation (ACA) algorithm for accelerat...
This contribution identifies an often ignored source of uncertainty in the accuracy of the Adaptive ...
Abstract. Many algebraic multilevel methods for solving linear systems assume that the slow-to-conve...
The adaptive cross approximation (ACA) algorithm [2, 3] provides a means to com-pute data-sparse app...
This paper concerns characterizations of approximation classes associated to adaptive finite element...
The matrix-vector multiplication encountered in the iterative solution of scattering problems can be...
Abstract. A formal mean square error expansion (MSE) is derived for Euler–Maruyama nu-merical soluti...