4.8 Article

A 2.5m Long-Range IPT System Based on Domino Cylindrical Solenoid Coupler Compensated Respectively in Layers

Journal

IEEE TRANSACTIONS ON INDUSTRIAL ELECTRONICS
Volume 70, Issue 2, Pages 1409-1420

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TIE.2022.3156162

Keywords

Coils; Couplings; Insulators; Couplers; Voltage; Solenoids; Insulation; Long-range inductive power transfer (IPT); magnetic coupler design; post insulator application; smart grid; stray capacitance

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This article proposes a 2.5m five-stage inductive power transfer system based on domino cylindrical solenoid coupler. The system is designed for 220 kV post insulators application in smart grids to transfer power for sensors and measuring instruments. By using the distributed series compensation method, the system can significantly reduce the current in the main circuit and effectively reduce the resistance caused by stray capacitance. The article also analyzes the interaction between the post insulator and the magnetic coupling structure, as well as presents a circuit model with constant voltage output characteristics. The prototype achieves a maximum efficiency of 66.7% and can still maintain an efficiency of 62% when transferring higher power.
In this article, a 2.5m five-stage inductive power transfer (IPT) system based on domino cylindrical solenoid coupler (CSC) compensated, respectively, in layers is proposed. The system is considered to be used as 220 kV post insulators application, transferring power for sensors and measuring instruments of smart grids. The distributed series compensation method is applied to double-layer CSC. Compared with the two types of parallel schemes, this method can significantly reduce the current of the main circuit. Compared with the concentrated series compensation method, this method can effectively reduce the resistance caused by the stray capacitance. The interaction between the post insulator and the magnetic coupling structure is analyzed. The circuit model of the system with constant voltage output characteristics is analyzed. A prototype with a maximum efficiency of 66.7% is built. When the power is transferred to a larger value of 77.8W, the efficiency can still reach 62%. Comparing with previous works, the wireless distance is extended while the efficiency is improved.

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