The expanding Electric vehicle (EV) market is fueled by the need for more efficient and
dependable ways to recharge the battery. By eradicating the necessity for direct physical …

As a power supply method with high spatial freedom, megahertz (MHz) wireless power
transfer (WPT) has great potential in particular application fields. The role and importance of …

Due to the environmental concerns about CO 2-caused global warming, policymakers are
pushing electrified vehicles (EVs) to reduce these emissions. For passenger vehicles only …

A high-power, high-frequency wireless power transfer system for electric vehicles (EVs) is
proposed in this article with lightweight and compact coil design. Leveraging a multilayer …

The closed‐loop wireless power transfer (WPT) system can realize constant voltage output
in the presence of perturbation. However, the parameter design of the controller is a difficult …

This article investigates the modeling and implementation of the load-independent operation
for the push–pull Class E topology with coupled inductors. The analytical modeling is first …

This article provides a complete coil and shielding design solution for a 6.6 kW electric
vehicle (EV) wireless power transfer system based on compact self-resonant (SR) coils. Due …

Nanocrystalline pads are normally considered to be infeasible in inductive power tansfer
(IPT) systems due to their excessive loss—thermal behavior. This article proposes a novel …

Wireless power transfer (WPT) has proven to be an effective solution for electric vehicle
charging. As two mainstream near-field WPT technologies, inductive and capacitive power …

In a wireless power transfer (WPT) system, the coil-to-coil transfer efficiency is significantly
influenced by the performance of coupling coils. The self-resonant coil is widely employed …