A Staggered Fourth-Order Accurate Explicit Finite Difference Scheme for the Time-Domain Maxwell's Equations
Document Type
Article
Publication Date
4-10-2001
Abstract
We consider a model explicit fourth-order staggered finite-difference method for the hyperbolic Maxwell's equations. Appropriate fourth-order accurate extrapolation and one-sided difference operators are derived in order to complete the scheme near metal boundaries and dielectric interfaces. An eigenvalue analysis of the overall scheme provides a necessary, but not sufficient, stability condition and indicates long-time stability. Numerical results verify both the stability analysis, and the scheme's fourth-order convergence rate over complex domains that include dielectric interfaces and perfectly conducting surfaces. For a fixed error level, we find the fourth-order scheme is computationally cheaper in comparison to the Yee scheme by more than an order of magnitude. Some open problems encountered in the application of such high-order schemes are also discussed. © 2001 Academic Press.
Identifier
0000522244 (Scopus)
Publication Title
Journal of Computational Physics
External Full Text Location
https://doi.org/10.1006/jcph.2001.6691
ISSN
00219991
First Page
286
Last Page
315
Issue
2
Volume
168
Fund Ref
Air Force Office of Scientific Research
Recommended Citation
Yefet, Amir and Petropoulos, Peter G., "A Staggered Fourth-Order Accurate Explicit Finite Difference Scheme for the Time-Domain Maxwell's Equations" (2001). Faculty Publications. 15185.
https://digitalcommons.njit.edu/fac_pubs/15185
