TY - JOUR
T1 - Multi-Inverter Phase-Shifted Control for Inductive Power Transfer with Overlapped Transmitters
AU - Deng, Qijun
AU - Li, Zhifan
AU - Liu, Jiangtao
AU - Li, Shuaiqi
AU - Czarkowski, Dariusz
AU - Marian, Kazimierczuk
AU - Zhou, Hong
AU - Hu, Wenshan
N1 - Publisher Copyright:
IEEE
Copyright:
Copyright 2021 Elsevier B.V., All rights reserved.
PY - 2021
Y1 - 2021
N2 - A high power inductive power transfer (IPT) system with overlapped transmitters driven by a multi-inverter topology is proposed in the paper. Each inverter drives an independent primary coil to transfer energy to the common secondary coil. A phase-shifted control strategy at inverter-level is proposed to regulate the output of the system. A dynamic model based on virtual resonant loop is proposed to describe the system with the phase-shift angle and the output voltage as the input and output variables, respectively. With the introduction of virtual resonant loop, n practical resonant loops at the primary side can be expressed by two equations, which greatly reduce the scale and order of the model. A PI controller is developed to evaluate the system regulating performance. A laboratory prototype driven by three inverters connected in parallel was built to verify the theoretical analysis. Experiments shown that the setting times were within 13 ms under load resistance and reference disturbances, which verified the validity of the model and the controller
AB - A high power inductive power transfer (IPT) system with overlapped transmitters driven by a multi-inverter topology is proposed in the paper. Each inverter drives an independent primary coil to transfer energy to the common secondary coil. A phase-shifted control strategy at inverter-level is proposed to regulate the output of the system. A dynamic model based on virtual resonant loop is proposed to describe the system with the phase-shift angle and the output voltage as the input and output variables, respectively. With the introduction of virtual resonant loop, n practical resonant loops at the primary side can be expressed by two equations, which greatly reduce the scale and order of the model. A PI controller is developed to evaluate the system regulating performance. A laboratory prototype driven by three inverters connected in parallel was built to verify the theoretical analysis. Experiments shown that the setting times were within 13 ms under load resistance and reference disturbances, which verified the validity of the model and the controller
KW - inductive power transfer
KW - modeling and control
KW - parallel multi-inverter
KW - phase-shifted control
KW - resonant power converter
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U2 - 10.1109/TPEL.2021.3052232
DO - 10.1109/TPEL.2021.3052232
M3 - Article
AN - SCOPUS:85099724196
JO - IEEE Transactions on Power Electronics
JF - IEEE Transactions on Power Electronics
SN - 0885-8993
ER -