DocumentCode
2204473
Title
Modeling technique for DC to DC converters using Weinberg topology
Author
Kornetzky, P. ; Moussaoui, Z. ; Batarseh, I. ; Hawasly, Susan ; Kennedy, Chester
Author_Institution
Electr. & Comput. Eng. Dept., Central Florida Univ., Orlando, FL, USA
fYear
1996
fDate
11-14 Apr 1996
Firstpage
551
Lastpage
556
Abstract
In this paper, the authors present a simplified analysis and design of a DC-to-DC power converter unit (DDCU) using the improved Weinberg topology. The DDCU has the added complication that the turns ratio of the power transformer Ns/Np=m is different than the turns ratio of the inductor transformer NLS/NL=n. The state-space averaging approach is used for modeling the reduced order Weinberg power converter. This model can be used to drive frequency domain, transient and steady state responses for current mode and voltage mode control power converters. Through state-space averaging, the DDCU equivalent circuit can be used to obtain all the relevant power stage transfer functions. To verify the steady state and dynamic models results, a PSPICE simulation for a given design example is presented
Keywords
DC-DC power convertors; SPICE; circuit analysis computing; equivalent circuits; power engineering computing; power transformers; state-space methods; transfer functions; DC-to-DC power converter unit; PSPICE simulation; Weinberg topology; current mode control; equivalent circuit; frequency domain response; inductor transformer; power stage transfer functions; power transformer; state-space averaging; steady state response; transient response; turns ratio; voltage mode control; DC-DC power converters; Equivalent circuits; Frequency domain analysis; Inductors; Power transformers; SPICE; Steady-state; Topology; Transfer functions; Voltage control;
fLanguage
English
Publisher
ieee
Conference_Titel
Southeastcon '96. Bringing Together Education, Science and Technology., Proceedings of the IEEE
Conference_Location
Tampa, FL
Print_ISBN
0-7803-3088-9
Type
conf
DOI
10.1109/SECON.1996.510133
Filename
510133
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