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Criticality mitigation in a quasi-constant coupling position independent resonant IPT network

Published online by Cambridge University Press:  08 June 2018

Alex Pacini Open the ORCID record for Alex Pacini [Opens in a new window] ,
Franco Mastri ,
Diego Masotti  and
Alessandra Costanzo
Alex Pacini*
Affiliation:
Department of Electrical, Electronic and Information Engineering ‘Guglielmo Marconi’ (DEI) of the University of Bologna, Bologna, Italy
Franco Mastri
Affiliation:
Department of Electrical, Electronic and Information Engineering ‘Guglielmo Marconi’ (DEI) of the University of Bologna, Bologna, Italy
Diego Masotti
Affiliation:
Department of Electrical, Electronic and Information Engineering ‘Guglielmo Marconi’ (DEI) of the University of Bologna, Bologna, Italy
Alessandra Costanzo
Affiliation:
Department of Electrical, Electronic and Information Engineering ‘Guglielmo Marconi’ (DEI) of the University of Bologna, Bologna, Italy
*
Author for correspondence: Alex Pacini, E-mail: [email protected]
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Abstract

This paper discusses some significant design issues that are faced in resonant inductive system for wireless power transfer ‘on the move’. The targeted system adopts a single AC source to power a sequence of transmitting (Tx) coils, placed along the Rx path, whose geometry is optimized to minimize the variations of coupling for every possible Rx position. To retain a constant coupling coefficient, two nearby Tx coils are series-connected and simultaneously activated, establishing a path without any theoretical bound on its length, by a suitable switching network. This work analyzes the effects of asynchronous switching times, which are rigorously accounted for and minimized by a proper design of the compensating circuit elements, minimizing both the voltage spikes and the over currents on the coils, while keeping the system at resonance. A prototype operating at 6.78 MHz is built and experimental validations are carried out to verify the feasibility of a constant coupling link without experiencing the mentioned effects, but the adopted procedure is general and independent on its size or frequency.

Keywords

passive components and circuitswireless power transfer and energyharvesting
Type
Research Papers
Information
International Journal of Microwave and Wireless Technologies , Volume 10 , Issue 8 , October 2018 , pp. 911 - 920
Copyright
Copyright © Cambridge University Press and the European Microwave Association 2018 

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References

1Wang, C-S, Stielau, O and Covic, G (2005) Design considerations for a contactless electric vehicle battery charger. IEEE IEEE Transactions on Industrial Electronics 52(5), 1308–1314.Google Scholar
2Sample, AP, Meyer, DA and Smith, JR (2011) Analysis, experimental results, and range adaptation of magnetically coupled resonators for wireless power transfer, IEEE IEEE Transactions on Industrial Electronics 58(2), 544–554.Google Scholar
3Low, ZN, Chinga, R, Tseng, R and Lin, J (2009) Design and test of a high-power high-efficiency loosely coupled planar wireless power transfer system. IEEE IEEE Transactions on Industrial Electronics 56(5), 1801–1812.Google Scholar
4Imura, T and Hori, Y (2011) Maximizing air gap and efficiency of magnetic resonant coupling for wireless power transfer using equivalent circuit and neumann formula. IEEE IEEE Transactions on Industrial Electronics 58(10), 4746–4752.Google Scholar
5Pinuela, M, Yates, DC, Lucyszyn, S and Mitcheson, PD (2013) Maximizing DC-to-load efficiency for inductive power transfer. IEEE IEEE Transactions on Power Electronics 28(5), 2437–2447.Google Scholar
6Zhong, WX and Hui, SYR (2015) Maximum energy efficiency tracking for wireless power transfer systems. IEEE IEEE Transactions on Power Electronics 30(7), 4025–4034.Google Scholar
7Florian, C, Mastri, F, Paganelli, RP, Masotti, D and Costanzo, A (2014) Theoretical and numerical design of a wireless power transmission link with GaN-based transmitter and adaptive receiver. IEEE Transactions on Microwave Theory and Techniques 62(4), 931–946.Google Scholar
8Wang, C-S, Covic, G and Stielau, O (2004) Power transfer capability and bifurcation phenomena of loosely coupled inductive power transfer systems. IEEE IEEE Transactions on Industrial Electronics 51(1), 148–157.Google Scholar
9Mastri, F, Costanzo, A and Mongiardo, M (2016) Coupling-independent wireless power transfer. IEEE Microwave Wireless Component Letter 26(3), 222–224.Google Scholar
10Zhang, Z and Chau, KT (2015) Homogeneous wireless power transfer for move-and-charge. IEEE IEEE Transactions on Power Electronics 30(11), 6213–6220.Google Scholar
11Prasanth, V and Bauer, P (2014) Distributed IPT systems for dynamic powering: Misalignment analysis. IEEE IEEE Transactions on Industrial Electronics 61(11), 6013–6021.Google Scholar
12Shin, J, Shin, S, Kim, Y, Ahn, S, Lee, S, Jung, G, Jeon, S-J and Cho, D-H (2014) Design and implementation of shaped magnetic-resonance-based wireless power transfer system for roadway-powered moving electric vehicles. IEEE IEEE Transactions on Industrial Electronics 61(3), 1179–1192.Google Scholar
13Kazmierkowski, M and Moradewicz, A (2012) Unplugged but connected: Review of contactless energy transfer systems. IEEE Industrial Electronics Magazine 6(4), 47–55.Google Scholar
14Elliott, G, Raabe, S, Covic, GA and Boys, JT (2010) Multiphase pickups for large lateral tolerance contactless power-transfer systems. IEEE IEEE Transactions on Industrial Electronics 57(5), 1590–1598.Google Scholar
15Chopra, S and Bauer, P (2013) Driving range extension of EV with on-road contactless power transfer – a case study. IEEE IEEE Transactions on Industrial Electronics 60(1), 329–338.Google Scholar
16Russer, JA, Dionigi, M, Mongiardo, M and Russer, P (2013) A bidirectional moving field inductive power transfer system for electric vehicles. in 2013 11th International Conference on Telecommunications in Modern Satellite, Cable and Broadcasting Services (TELSIKS).Google Scholar
17Chen, LJ, Boys, JT and Covic, GA (2015) Power management for multiple-pickup IPT systems in materials handling applications. IEEE Journal of Emerging and Selected Topics in Power Electronics 3(1), 163–176.Google Scholar
18van der Pijl, FFA, Castilla, M and Bauer, P (2013) Adaptive sliding-mode control for a multiple-user inductive power transfer system without need for communication. IEEE IEEE Transactions on Industrial Electronics 60(1), 271–279.Google Scholar
19Pacini, A, Mastri, F, Trevisan, R, Costanzo, A and Masotti, D (2016) Theoretical and experimental characterization of moving wireless power transfer systems. in 2016 10th European Conference on Antennas and Propagation (EuCAP).Google Scholar
20Pacini, A, Mastri, F, Trevisan, R, Masotti, D and Costanzo, A (2016) Geometry optimization of sliding inductive links for position-independent wireless power transfer, in 2016 IEEE MTT-S International Microwave Symposium (IMS).Google Scholar
21Pacini, A, Costanzo, A, Aldhaher, S and Mitcheson, PD (2017) Design of a Position-Independent End-to-End Inductive WPT Link for Industrial Dynamic Systems, in 2017 IEEE MTT-S International Microwave Symposium (IMS), pp. 1053–1056.Google Scholar
22Pacini, A, Costanzo, A, Aldhaher, S and Mitcheson, PD (2017) Load- and position-independent moving MHz WPT system based on GaN-distributed current sources. IEEE Transactions on Microwave Theory and Techniques, Institute of Electrical and Electronics Engineers (IEEE) 65, 5367–5376.Google Scholar
23Costanzo, A, Dionigi, M, Mastri, F, Mongiardo, M, Russer, JA and Russer, P (2014) Rigorous network modeling of magnetic-resonant wireless power transfer. Wireless Power Transfer 1(01), 27–34.Google Scholar
24ADS Advanced Design System (2015) keysight.com, Keysight Technologies.Google Scholar