A new concept for reducing the losses in a boost converter is described. With the help of an auxiliary switch and a resonant circuit, zero-voltage switching at turn-off and zerocurrent switching during turn-on are achieved. The modes of the circuit are shown in detail. The energy recovery of the turn-off is analyzed and the recovered energy is calculated; an optimized switching concept therefore is described. The influence of the parasitic capacity of the switch is discussed. Dimensioning hints for the converter and the design of the recuperation circuit are given. A bread-boarded design shows the functional efficiency of the concept
[[abstract]]This paper presents a 5 kW boost converter with various passive/active snubbers for redu...
This paper presents a quasi-resonant, zero voltage switching (ZVS) SiC boost converter for an output...
AC supply is most commonly available at different line frequencies. The majority of the applications...
Abstract—A technique which improves the performance of the boost converter by reducing the reverse-r...
Abstract—A circuit technique that reduces the boost-converter losses caused by the reverse-recovery ...
Abstract – This paper describes the improvement in converter efficiency by reducing the switching lo...
Modern AC-DC power supplies utilize power factor correction in order to minimize the harmonics in th...
Abstract — This paper presents a zero voltage Switching DC-DC boost Converter with an Auxiliary reso...
A new active feed-forward snubber for conventional three-phase PWM (pulse width modulated) boost rec...
This study presents an improved zero voltage switching (ZVS) boost converter with an active snubber ...
[[abstract]]This paper presents a soft-switching boost converter with a flyback snubber for high pow...
Abstract- A boost converter which employs a flying-capacitor passive lossless snubber to reduce the ...
Abstract—A new soft-switching technique that improves performance of the high-power-factor boost rec...
Abstract — A new soft-switching technique that improves performance of the high-power-factor boost r...
This study presents an improved zero voltage switching (ZVS) boost converter with an active snubber ...
[[abstract]]This paper presents a 5 kW boost converter with various passive/active snubbers for redu...
This paper presents a quasi-resonant, zero voltage switching (ZVS) SiC boost converter for an output...
AC supply is most commonly available at different line frequencies. The majority of the applications...
Abstract—A technique which improves the performance of the boost converter by reducing the reverse-r...
Abstract—A circuit technique that reduces the boost-converter losses caused by the reverse-recovery ...
Abstract – This paper describes the improvement in converter efficiency by reducing the switching lo...
Modern AC-DC power supplies utilize power factor correction in order to minimize the harmonics in th...
Abstract — This paper presents a zero voltage Switching DC-DC boost Converter with an Auxiliary reso...
A new active feed-forward snubber for conventional three-phase PWM (pulse width modulated) boost rec...
This study presents an improved zero voltage switching (ZVS) boost converter with an active snubber ...
[[abstract]]This paper presents a soft-switching boost converter with a flyback snubber for high pow...
Abstract- A boost converter which employs a flying-capacitor passive lossless snubber to reduce the ...
Abstract—A new soft-switching technique that improves performance of the high-power-factor boost rec...
Abstract — A new soft-switching technique that improves performance of the high-power-factor boost r...
This study presents an improved zero voltage switching (ZVS) boost converter with an active snubber ...
[[abstract]]This paper presents a 5 kW boost converter with various passive/active snubbers for redu...
This paper presents a quasi-resonant, zero voltage switching (ZVS) SiC boost converter for an output...
AC supply is most commonly available at different line frequencies. The majority of the applications...