An efficient, simple and reliable design method is introduced for bandpass wave digital lattice filters exhibiting arbitrary loss responses. The main feature of this method is that the approximation is straightforward. Thus it is carried out without the need to apply frequency transformation techniq
Time domain analysis and design of multirate wave digital filters
โ Scribed by M. F. Fahmy; A. El-Wardaney; N. A. El-Gayed; M. I. Sobhy
- Publisher
- John Wiley and Sons
- Year
- 1991
- Tongue
- English
- Weight
- 580 KB
- Volume
- 19
- Category
- Article
- ISSN
- 0098-9886
No coin nor oath required. For personal study only.
โฆ Synopsis
A generalized time domain approach is described for the analysis and design of wave digital filters capable of performing sampling rate alterations whether integer or non-integer. It is based on sequential computation of the filter's system response; then this discrete response is reduced to a rational function form. The proposed approach is characterized by its simplicity as well as its ability to analyse and design multistage, multirate wave digital structures. Illustrative examples are also given.
๐ SIMILAR VOLUMES
## Abstract A transmissionโline configuration consisting of equalโlength twoโsection open stubs, serial lines, and short stubs is employed to emulate the Zโdomain transfer function of a wideband bandโpass filter. Both mitering and slots are used to reduce the discontinuity effect caused by the abru
## Abstract A time domain analysis of the equations governing wave propagation in an unbounded chiral medium is presented by a spectral family approach and by a direct eigenfunction expansion using BeltramiโMoses fields.
We present a quasi-planar incident wave excitation for time-domain scattering analysis of periodic structures. It uses a particular superposition of plane waves that yields an incident wave with the same periodicity as the periodic structure itself. The duration of the incident wave is controlled by
## Abstract This article presents a study on calculating the conversion efficiency of a microwave rectifying circuit by using finite difference time domain (FDTD) algorithm. To properly descript the lumped device in FDTD algorithm, the nonlinear lumped network (NL^2^N)โFDTD method is further extend