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IEEE Transactions on Antennas and Propagation
Volume 46 Number 5, May 1998
Table of Contents for this issue
Complete paper in PDF format
Wavelet Packets for Fast Solution of Electromagnetic Integral Equations
Wojciech L. Golik
Page 618.
Abstract:
This paper considers the problem of wavelet sparsification
of matrices arising in numerical solution of electromagnetic integral
equations by the method of moments. Scattering of plane waves from
two-dimensional (2-D) cylinders is computed numerically using a constant
number of test functions per wavelength. Discrete wavelet packet (DWP)
similarity transformations and thresholding are applied to system
matrices to obtain sparsity. If thresholds are selected to keep relative
residual error constant the matrix sparsity is of order
O(N^p) with p < 2. This stands
in contrast with O(N^2) sparsities obtained with standard
wavelet transformations [1]. Numerical tests also show that the DWP
method yields faster matrix-vector multiplication than some fast
multipole algorithms.
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