Efficient analysis of large phased arrays using iterative MoM with DFT-based acceleration algorithm
Date
2003
Authors
Ertürk, V. B.
Chou, H-T.
Editor(s)
Advisor
Supervisor
Co-Advisor
Co-Supervisor
Instructor
BUIR Usage Stats
3
views
views
31
downloads
downloads
Citation Stats
Series
Abstract
A discrete Fourier transform (DFT)-based iterative method of moments (IMoM) algorithm is developed to provide an O(Ntot) computational complexity and memory storages for the efficient analysis of electromagnetic radiation/scattering from large phased arrays. Here, Ntot is the total number of unknowns. Numerical results for both printed and free-standing dipole arrays are presented to validate the algorithm's efficiency and accuracy.
Source Title
Microwave and Optical Technology Letters
Publisher
John Wiley & Sons, Inc.
Course
Other identifiers
Book Title
Keywords
Discrete Fourier transform, Iterative solvers, Method of moments, Phased array, Algorithms, Computational complexity, Convergence of numerical methods, Dipole antennas, Discrete Fourier transforms, Electric current distribution, Electromagnetic wave scattering, Iterative methods, Method of moments, Permittivity, Biconjugate gradient stabilized method, Dipole arrays, Periodic arrays, Antenna phased arrays
Degree Discipline
Degree Level
Degree Name
Citation
Permalink
Published Version (Please cite this version)
Language
English