Foster, M P, Sewell, H I, Bingham, Chris et al, Stone, D A, Hente, D and Howe, D
(2003)
Cyclic-averaging for high-speed analysis of resonant converters.
IEEE TRANSACTIONS ON POWER ELECTRONICS, 18
(4).
pp. 985-993.
ISSN 0885-8993
Full content URL: Http://dx.doi.org/10.1109/TPEL.2003.813763
| Cyclic-averaging for high-speed analysis of resonant converters | | Abstract—The paper describes the development and application
of a cyclic-averaging technique for the rapid analysis of
high-order resonant power converters. To provide a focus to the
paper, particular emphasis is given to a 3rd-order LCC voltage
output converter topology. The proposed methodology predicts
steady-state voltages and currents throughout the circuit, and
provides estimates of the stresses on the resonant circuit components.
State-space simulations and experimental results from a
350 V-input/150 V-output converter are used to demonstrate a prediction
accuracy comparable with time-domain integration-based
techniques is achievable, while requiring only 1/10,000th of the
computation time. In addition, a comparison with Spice simulation
results shows that cyclic averaging provides commensurate
predictions of voltage and current stresses on the resonant circuit
components. Issues arising from the stray capacitance associated
with the resonant inductor, and the corresponding sensitivity of
the predicted output voltage, are also considered. | | ![[img]](http://eprints.lincoln.ac.uk/style/images/fileicons/application_pdf.png)
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| Item Type: | Article |
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| Item Status: | Live Archive |
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Abstract
Abstract—The paper describes the development and application
of a cyclic-averaging technique for the rapid analysis of
high-order resonant power converters. To provide a focus to the paper, particular emphasis is given to a 3rd-order LCC voltage output converter topology. The proposed methodology predicts steady-state voltages and currents throughout the circuit, and provides estimates of the stresses on the resonant circuit components. State-space simulations and experimental results from a 350 V-input/150 V-output converter are used to demonstrate a prediction accuracy comparable with time-domain integration-based
techniques is achievable, while requiring only 1/10,000th of the computation time. In addition, a comparison with Spice simulation results shows that cyclic averaging provides commensurate predictions of voltage and current stresses on the resonant circuit components. Issues arising from the stray capacitance associated with the resonant inductor, and the corresponding sensitivity of the predicted output voltage, are also considered.
| Additional Information: | Abstract—The paper describes the development and application
of a cyclic-averaging technique for the rapid analysis of
high-order resonant power converters. To provide a focus to the paper, particular emphasis is given to a 3rd-order LCC voltage output converter topology. The proposed methodology predicts steady-state voltages and currents throughout the circuit, and provides estimates of the stresses on the resonant circuit components. State-space simulations and experimental results from a 350 V-input/150 V-output converter are used to demonstrate a prediction accuracy comparable with time-domain integration-based
techniques is achievable, while requiring only 1/10,000th of the computation time. In addition, a comparison with Spice simulation results shows that cyclic averaging provides commensurate predictions of voltage and current stresses on the resonant circuit components. Issues arising from the stray capacitance associated with the resonant inductor, and the corresponding sensitivity of the predicted output voltage, are also considered. |
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| Keywords: | Resonant power conversion |
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| Subjects: | H Engineering > H610 Electronic Engineering |
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| Divisions: | College of Science > School of Engineering |
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| ID Code: | 2353 |
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| Deposited On: | 24 Apr 2010 18:21 |
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