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Dynamic Modeling and Controller Design of Dual-Mode Cuk Inverter in Grid-Connected PV/TE Applications

Authors
Han, ByeongcheolLai, Jih-ShengKim, Minsung
Issue Date
Dec-2017
Publisher
Institute of Electrical and Electronics Engineers
Keywords
Continuous conduction mode (CCM); discontinuous conduction mode (DCM); dual-mode nominal duty; fifth-order dynamic model; mode boundary; multiple phase-lead compensator; repetitive controller (RC); right-half-plane (RHP) zeros; unfolding-type inverter
Citation
IEEE Transactions on Power Electronics, v.33, no.10, pp 8887 - 8904
Pages
18
Indexed
SCI
SCIE
SCOPUS
Journal Title
IEEE Transactions on Power Electronics
Volume
33
Number
10
Start Page
8887
End Page
8904
URI
https://scholarworks.dongguk.edu/handle/sw.dongguk/25959
DOI
10.1109/TPEL.2017.2779843
ISSN
0885-8993
1941-0107
Abstract
This paper presents a dual-mode Cuk inverter for photovoltaic/thermoelectric power applications. A dual-mode Cuk inverter operates in both discontinuous conduction mode (DCM) and continuous conduction mode (CCM), and has the advantages of low ripples of voltage and current at the input and output, medium power density, and step-up/step-down ability, but is difficult to control because DCM and CCM have distinct system dynamics. To overcome this control problem, we propose to use a repetitive controller (RC) with a multiple phase-lead compensator for the dual-mode Cuk inverter. If the RC is applied by itself, the distinct system dynamics may severely degrade its system performance. Thus, in the proposed RC, we mainly use a multiple phase-lead compensator to compensate for the different phase lags of the dual-mode Cuk inverter. To reduce the burden from the RC, we use the dual-mode nominal duty ratio as feedforward control input. We also analyze the boundary of operation modes in the dual-mode Cuk inverter, then provide detailed and practical guidelines to design the control parameters. Experimental results obtained on a 500-W digitally controlled module integrated converter prototype confirmed the effectiveness of the control approach. © 2017 IEEE.
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