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The Current and Voltage Phase Shift Regulation in Resonant Converters With Integration Control | IEEE Journals & Magazine | IEEE Xplore

The Current and Voltage Phase Shift Regulation in Resonant Converters With Integration Control


Abstract:

This letter presents an application of the phase controller which allows a regulation of current and voltage phase shift in resonant circuit with nonperiodic voltage wave...Show More

Abstract:

This letter presents an application of the phase controller which allows a regulation of current and voltage phase shift in resonant circuit with nonperiodic voltage waveform. The phase controller has been implemented using the voltage-controlled oscillator generator operating with double resonant frequency, creation of additional auxiliary voltage signal, and phase-locked loop. The results of computer simulations and laboratory experiments show that the proposed phase controller allows a simple and efficient phase shift regulation for all known systems of integration control with a continuous and discontinuous resonant current flow
Published in: IEEE Transactions on Industrial Electronics ( Volume: 54, Issue: 2, April 2007)
Page(s): 1240 - 1242
Date of Publication: 02 April 2007

ISSN Information:

Citations are not available for this document.

I. Introduction

One of the methods which is used in class D resonant converters is an integration control (Fig. 1) [4]. In the integration control, the changes of switch control signals may occur only at zero current. Therefore, it is very important to follow the resonance frequency because it allows to fulfill zero-current-switching (ZCS) conditions. The principle of the circuit operation is based on utilization energy stored in passive elements of the resonant circuit. It allows to keep the current continuous when the switches are turned-off [Fig. 1(b)], although a total disappearance of a current flow is possible as well [Fig. 2(a)]. Generally, a current magnitude in the resonant circuit is a subject of constant changes, but these changes are periodic, whereas the voltage changes on series resonant circuit (SRC) are nonperiodic. The voltage at the diagonal of the bridge can be in opposite phase to resonant current, in phase, or can be equal to zero as well (Fig. 2). Therefore, the definition, measurement, and regulation of current and voltage phase shift in the integration control are more complicated than in methods with periodic current and voltage waveforms.

Class D series-resonant bridge converter with integration control and phase shift controller: (a) Basic configuration of the circuit. (b) Time waveforms of resonant current , diagonal voltage , and control signals in phase controller for . (c) Characteristic of phase controller tuning. CT—current transformer; BS—bidirectional switch.

Simulated waveforms of resonant current , diagonal voltage in bridge converter with phase controller that operates with (a) PDM (—bidirectional switch control signal), (b) SWIPDM, and (c) SIC method (step change of SRC parameters).

Cites in Papers - |

Cites in Papers - IEEE (22)

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