In this paper, we present a technique for modeling periodic structures, such as spatial filters and photonic bandgap materials, using ( ) the finite-difference time-domain FDTD algorithm, for both the normal and oblique incidence cases. A wa¨eguide simulator technique is employed to model these peri
Modelling of dielectric cavity structures using multiresolution time-domain analysis
✍ Scribed by Rob Robertson; Emmanouil Tentzeris; Michael Krumpholz; Linda P. B. Katehi
- Publisher
- John Wiley and Sons
- Year
- 1998
- Tongue
- English
- Weight
- 223 KB
- Volume
- 11
- Category
- Article
- ISSN
- 0894-3370
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✦ Synopsis
Multiresolution time domain (MRTD) analysis is applied directly to Maxwell's equations to model inhomogeneous dielectric material. In our approach, scaling and wavelet functions are used as a complete basis for the method of moments. The MRTD scheme is used to analyze different types of resonant cavity structures with varying dielectric perturbations in one, two and three dimensions. The results presented here agree very well with those obtained by FDTD, FEM and integral equation methods. MRTD allows for considerable savings in memory and computation time in comparison to FDTD, while maintaining the same accuracy of the results.
📜 SIMILAR VOLUMES
In this paper, we present a technique, based on the principle of the frequency-domain con¨olution of a time-domain signature and a truncation window function, to process the electromagnetic field solution in a resonant structure deri¨ed by using the finite-difference ( ) time-domain FDTD algorithm.
The overall architecture of the ligand binding domain (LBD) of members of the nuclear receptor superfamily are similar. There are now standard procedures to express and purify these proteins. A rapid and sensitive method for the structural analysis of these proteins is nano-electrospray tandem mass