A perturbation-based model for rectifier circuits

A perturbation-theoretic analysis of rectifier circuits is presented. The governing differential equation of the half-wave rectifier with capacitor filter is analyzed by expanding the output voltage as a Taylor series with respect to an artificially introduced parameter in the nonlinearity of the di...

Full description

Bibliographic Details
Main Authors: Vipin B. Vats, H. Parthasarathy
Format: Article
Language:English
Published: Hindawi Limited 2006-01-01
Series:Differential Equations and Nonlinear Mechanics
Online Access:http://dx.doi.org/10.1155/DENM/2006/32675
id doaj-2aeb89335fd647609cb080e38830d1b8
record_format Article
spelling doaj-2aeb89335fd647609cb080e38830d1b82020-11-25T00:53:35ZengHindawi LimitedDifferential Equations and Nonlinear Mechanics1687-40991687-41022006-01-01200610.1155/DENM/2006/3267532675A perturbation-based model for rectifier circuitsVipin B. Vats0H. Parthasarathy1Division of Electronics and Communication, Netaji Subhas Institute of Technology, New Delhi 110075, IndiaDivision of Electronics and Communication, Netaji Subhas Institute of Technology, New Delhi 110075, IndiaA perturbation-theoretic analysis of rectifier circuits is presented. The governing differential equation of the half-wave rectifier with capacitor filter is analyzed by expanding the output voltage as a Taylor series with respect to an artificially introduced parameter in the nonlinearity of the diode characteristic as is done in quantum theory. The perturbation parameter introduced in the analysis is independent of the circuit components as compared to the method presented by multiple scales. The various terms appearing in the perturbation series are then modeled in the form of an equivalent circuit. This model is subsequently used in the analysis of full-wave rectifier. Matlab simulation results are included which confirm the validity of the theoretical formulations. Perturbation analysis acts a helpful tool in analyzing time-varying systems and chaotic systems.http://dx.doi.org/10.1155/DENM/2006/32675
collection DOAJ
language English
format Article
sources DOAJ
author Vipin B. Vats
H. Parthasarathy
spellingShingle Vipin B. Vats
H. Parthasarathy
A perturbation-based model for rectifier circuits
Differential Equations and Nonlinear Mechanics
author_facet Vipin B. Vats
H. Parthasarathy
author_sort Vipin B. Vats
title A perturbation-based model for rectifier circuits
title_short A perturbation-based model for rectifier circuits
title_full A perturbation-based model for rectifier circuits
title_fullStr A perturbation-based model for rectifier circuits
title_full_unstemmed A perturbation-based model for rectifier circuits
title_sort perturbation-based model for rectifier circuits
publisher Hindawi Limited
series Differential Equations and Nonlinear Mechanics
issn 1687-4099
1687-4102
publishDate 2006-01-01
description A perturbation-theoretic analysis of rectifier circuits is presented. The governing differential equation of the half-wave rectifier with capacitor filter is analyzed by expanding the output voltage as a Taylor series with respect to an artificially introduced parameter in the nonlinearity of the diode characteristic as is done in quantum theory. The perturbation parameter introduced in the analysis is independent of the circuit components as compared to the method presented by multiple scales. The various terms appearing in the perturbation series are then modeled in the form of an equivalent circuit. This model is subsequently used in the analysis of full-wave rectifier. Matlab simulation results are included which confirm the validity of the theoretical formulations. Perturbation analysis acts a helpful tool in analyzing time-varying systems and chaotic systems.
url http://dx.doi.org/10.1155/DENM/2006/32675
work_keys_str_mv AT vipinbvats aperturbationbasedmodelforrectifiercircuits
AT hparthasarathy aperturbationbasedmodelforrectifiercircuits
AT vipinbvats perturbationbasedmodelforrectifiercircuits
AT hparthasarathy perturbationbasedmodelforrectifiercircuits
_version_ 1725237530482180096