A 15 KW level 3 inductive power transfer charger for fast charging and maximum efficiency

This paper aims to design and simulate a Wireless Power Transfer charger that can achieve fast charging, thereby improving the EV users’ experience and bypassing the disadvantages of Level 1 and 2 chargers. We attend to this objective by presenting a Two-Stage Inductive Power Transfer system controlled by the constant power (CP) control strategy. Key innovations include the integration of an LCC-C compensation network with a Switched-Controlled Capacitor (SCC) and a DC/DC Buck converter. To validate our proposed system, we simulate a prototype using SimScape library. The simulation leads us to design a TSIPT prototype that achieves high-power charging of 15.3 KW and a power efficiency ranging from 92.2 % to 88 %, and an output voltage varying from 523V to 878V. These results are thanks to the DC/DC Buck converter that regulate the output and help to improve the battery life span, and due to the combination between the SCC and the secondary active rectifier (AR) the proposed IPT can maintain with a maximum constant charging output and a maximum power efficiency, that can make the overall system more stable.

Authors

Publication Details

Journal
Results in Engineering
Published
2024-09-12
DOI
https://doi.org/10.1016/j.rineng.2024.102868
Citations
9
Primary Topic
Wireless Power Transfer Systems
Type
article
Field-Weighted Citation Impact
1.88
Controls
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article

A 15 KW level 3 inductive power transfer charger for fast charging and maximum efficiency

Karim El Khadiri, Ahmed Tahiri, Hassan Qjidaa, Otman Seghyar et al.
9 citations
Results in Engineering
Wireless Power Transfer Systems
1.88
article

A 15 KW level 3 inductive power transfer charger for fast charging and maximum efficiency

Karim El Khadiri, Ahmed Tahiri, Hassan Qjidaa, Otman Seghyar, Jamil Mohammed Ouazzani, Anass El Affar
article en
9 citations

Abstract

This paper aims to design and simulate a Wireless Power Transfer charger that can achieve fast charging, thereby improving the EV users’ experience and bypassing the disadvantages of Level 1 and 2 chargers. We attend to this objective by presenting a Two-Stage Inductive Power Transfer system controlled by the constant power (CP) control strategy. Key innovations include the integration of an LCC-C compensation network with a Switched-Controlled Capacitor (SCC) and a DC/DC Buck converter. To validate our proposed system, we simulate a prototype using SimScape library. The simulation leads us to design a TSIPT prototype that achieves high-power charging of 15.3 KW and a power efficiency ranging from 92.2 % to 88 %, and an output voltage varying from 523V to 878V. These results are thanks to the DC/DC Buck converter that regulate the output and help to improve the battery life span, and due to the combination between the SCC and the secondary active rectifier (AR) the proposed IPT can maintain with a maximum constant charging output and a maximum power efficiency, that can make the overall system more stable.

Results in EngineeringVol. 24
Affordable and clean energy
Openalex Percentile: Top 14%
Wireless Power Transfer Systems
1.88
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