Publication detail
Design of Power Coupled Resonant Circuit for Wireless Power Transfer
TOMÁNEK, R. MARTIŠ, J. VOREL, P.
Original Title
Design of Power Coupled Resonant Circuit for Wireless Power Transfer
English Title
Design of Power Coupled Resonant Circuit for Wireless Power Transfer
Type
conference paper
Language
en
Original Abstract
This paper describes the design of a power coupled resonant circuit for wireless power transfer with coils distance of 600 mm and a nominal power of 20 kW. The transfer is provided by the inductive coupling of the resonant circuit with 800 mm diameter coils. The resonant circuit is powered by an inverter with IGBT modules working on frequency 130 kHz. The functionality of the realized device is verified by measurements, the evaluation of which is at the end of the article.
English abstract
This paper describes the design of a power coupled resonant circuit for wireless power transfer with coils distance of 600 mm and a nominal power of 20 kW. The transfer is provided by the inductive coupling of the resonant circuit with 800 mm diameter coils. The resonant circuit is powered by an inverter with IGBT modules working on frequency 130 kHz. The functionality of the realized device is verified by measurements, the evaluation of which is at the end of the article.
Keywords
wireless power transfer, resonant drive, coupled resonant circuit
Released
09.09.2020
Publisher
Brno University of Technology
Location
Brno
ISBN
978-80-214-5889-5
Book
Advanced Batteries Accumulators and Fuel Cells – 21st ABAF
Edition
1
Pages from
184
Pages to
186
Pages count
3
URL
Documents
BibTex
@inproceedings{BUT164366,
author="Radek {Tománek} and Jan {Martiš} and Pavel {Vorel}",
title="Design of Power Coupled Resonant Circuit for Wireless Power Transfer",
annote="This paper describes the design of a power coupled resonant circuit for wireless power transfer with coils distance of 600 mm and a nominal power of 20 kW. The transfer is provided by the inductive coupling of the resonant circuit with 800 mm diameter coils. The resonant circuit is powered by an inverter with IGBT modules working on frequency 130 kHz. The functionality of the realized device is verified by measurements, the evaluation of which is at the end of the article.",
address="Brno University of Technology",
booktitle="Advanced Batteries Accumulators and Fuel Cells – 21st ABAF",
chapter="164366",
edition="1",
howpublished="online",
institution="Brno University of Technology",
year="2020",
month="september",
pages="184--186",
publisher="Brno University of Technology",
type="conference paper"
}