Three-phase ac–dc converters are more commonly used for high-power applications
compared with single-phase converters. For high-power wireless power transfer (WPT) …

Designing an inductive power transfer system to deliver constant power over large ranges of
lateral and vertical pad misalignment is challenging. Existing power electronic solutions to …

It is well known that loads of inductive power transfer systems are often energy storage
devices. The major benefit of an LCC–LCC compensation topology is that without the …

In battery charging applications, wireless power transfer (WPT) technology has unique
advantages over wired power transmission. For stationary charging cars, it is necessary to …

In this paper, a dual-phase-shift control strategy combining with a switch-controlled capacitor
(SCC) is proposed to realize efficiency maximization while realizing zero voltage switching …

For traditional inductive power transfer (IPT), a two-stage structure is commonly used for
constant current (CC) and constant voltage (CV) charging, but the cascaded dc–dc converter …

In inductive power transfer systems, load and coupling fluctuations may cause significant
reactive power. In this article, a dual shunt inductor compensation topology (named as …

In frequency-modulated spread-spectrum (FMSS) EMI suppression, the switching frequency
of the transmitter is continuously modulated across below and above the nominal frequency …

This article proposes an intermediate coil-aided wireless charging systems via interactive
power transmitting mechanism. The study is motivated because the occurrence of coil …

Maintaining constant-current (CC) and constant-voltage (CV) outputs for meeting the
charging profile of lithium-ion batteries while realizing zero-voltage-switching on the primary …