Williams, D., Bingham, Chris, Foster, M. P. and Stone, D. A. (2010) Hamel locus design of self-oscillating DC-DC resonant converters. Power Electronics, IET, 3 (1). pp. 86-94. ISSN 1755-4535
Full content URL: http://dx.doi.org/10.1049/iet-pel.2008.0263
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Item Type: | Article |
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Item Status: | Live Archive |
Abstract
The study presents a technique for analysing and controlling resonant DC-DC converters in a self-oscillating manner. Self-oscillating converters benefit from higher efficiency and higher power density than their non-self-oscillating counterparts since they can be operated closer to the tank resonant frequency. The analysis necessary to predict the behaviour of such converters, based on the construction of Hamel loci, is developed. The impact of parasitic circuit elements is also inherently accommodated. Operation is based on the behaviour of a relay with a negative hysteresis transition. The proposed self-oscillating mechanism is therefore simple and cost effective to implement. Results from a prototype converter are included in order to verify the underlying theoretical principles.
Additional Information: | The study presents a technique for analysing and controlling resonant DC-DC converters in a self-oscillating manner. Self-oscillating converters benefit from higher efficiency and higher power density than their non-self-oscillating counterparts since they can be operated closer to the tank resonant frequency. The analysis necessary to predict the behaviour of such converters, based on the construction of Hamel loci, is developed. The impact of parasitic circuit elements is also inherently accommodated. Operation is based on the behaviour of a relay with a negative hysteresis transition. The proposed self-oscillating mechanism is therefore simple and cost effective to implement. Results from a prototype converter are included in order to verify the underlying theoretical principles. |
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Keywords: | Resonant power conversion |
Subjects: | H Engineering > H610 Electronic Engineering |
Divisions: | College of Science > School of Engineering |
ID Code: | 2901 |
Deposited On: | 16 Jul 2010 08:24 |
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