Riccati equation-based generalization of Dawson's integral function
β Scribed by R. Messina; M. A. Jivulescu; A. Messina; A. Napoli
- Publisher
- John Wiley and Sons
- Year
- 2007
- Tongue
- English
- Weight
- 111 KB
- Volume
- 30
- Category
- Article
- ISSN
- 0170-4214
- DOI
- 10.1002/mma.916
No coin nor oath required. For personal study only.
β¦ Synopsis
Abstract
A new generalization of Dawson's integral function based on the link between a Riccati nonlinear differential equation and a secondβorder ordinary differential equation is reported. The MacLaurin expansion of this generalized function is built up and to this end an explicit formula for a generic cofactor of a triangular matrix is deduced. Copyright Β© 2007 John Wiley & Sons, Ltd.
π SIMILAR VOLUMES
Uncertainty has been treated in science for several decades. It always exists in real systems. Probability has been traditionally used in modeling uncertainty. Belief and plausibility functions based on the Dempster-Shafer theory ~DST! become another method of measuring uncertainty, as they have bee
## Abstract A note on the effects of a weak discontinuity in the forcing function __g(x)__ of a singular, integral equation of the first kind and the resulting strong discontinuity that can appear in the solution __f__(__x__) is presented.
A set of closed-form Green's functions is used in a mixed-potential integral-equation technique for the efficient modeling of planar microstrip structures of arbitrary shape on an electrically thin substrate. Various MMIC and microstrip antenna structures are simulated. It is shown that excellent ac
This paper is concerned with Riccati equation based analysis methods for determining stability and performance of perturbed feedback systems. The elements of the state-space representation of the systems are assumed to be linearly perturbed with real, magnitude bounded uncertaintites. Performance is
## Abstract In this article, theoretical analyses are carried out for integral equations associated with cavity Green's functions. When cavities are fully enclosed and lossless, conventional integral equations are illβposed at cavities' resonant frequencies. As a remedy, modified integral equations