This paper presents an integrated synchronous buck converter for input voltages >12V with 10MHz switching frequency. The converter comprises a predictive dead time control with frequency compensated sampling of the switching node which does not require body diode forward conduction. A high dead time resolution of 125 ps is achieved by a differential delay chain with 8-bit resolution. This way, the efficiency of fast switching DCDC converters can be optimized by eliminating the body diode forward conduction losses, minimizing reverse recovery losses and by achieving zero voltage switching at turn off. The converter was implemented in a 180nm high-voltage BiCMOS technology. The power losses were measured to be reduced by 30%by the proposed de...
An integrated synchronous buck converter, designed in a 0.18-μm high-voltage CMOS technology, is ana...
With the rapid development of system-on-chip integration and continuously scaling-down power supply,...
Abstract—This work is about the analysis of dead time variation on switching losses in a Zero Voltag...
A highly integrated synchronous buck converter with a predictive dead time control for input voltage...
An integrated synchronous buck converter with a high resolution dead time control for input voltages...
An adaptive inverter-based dead-time controller for synchronous DC-DC converter is proposed. With th...
The synchronous buck DC-DC power converter is the most common switching converter circuit used to st...
Time-based control techniques for the design of high switching frequency buck converters are present...
A buck converter with maximum charging current control in achieving high tracking speed is presented...
Excessive dead time in complementary switches causes significant energy losses in DC-DC power conver...
Fast switching power supplies allow to reduce the size and cost of external passive components. Howe...
This Final Year Project pertains to the design and verification of building blocks of a high switchi...
An integrated DC-DC hysteretic buck converter with ultrafast adaptive output transient response for ...
This report proposes an integrated, high switching frequency, zero-voltage-switching dc-dc buck co...
© 2016 IEEE. This brief presents an asymmetrical dead-time control driver (ASDTCD) for synchronous b...
An integrated synchronous buck converter, designed in a 0.18-μm high-voltage CMOS technology, is ana...
With the rapid development of system-on-chip integration and continuously scaling-down power supply,...
Abstract—This work is about the analysis of dead time variation on switching losses in a Zero Voltag...
A highly integrated synchronous buck converter with a predictive dead time control for input voltage...
An integrated synchronous buck converter with a high resolution dead time control for input voltages...
An adaptive inverter-based dead-time controller for synchronous DC-DC converter is proposed. With th...
The synchronous buck DC-DC power converter is the most common switching converter circuit used to st...
Time-based control techniques for the design of high switching frequency buck converters are present...
A buck converter with maximum charging current control in achieving high tracking speed is presented...
Excessive dead time in complementary switches causes significant energy losses in DC-DC power conver...
Fast switching power supplies allow to reduce the size and cost of external passive components. Howe...
This Final Year Project pertains to the design and verification of building blocks of a high switchi...
An integrated DC-DC hysteretic buck converter with ultrafast adaptive output transient response for ...
This report proposes an integrated, high switching frequency, zero-voltage-switching dc-dc buck co...
© 2016 IEEE. This brief presents an asymmetrical dead-time control driver (ASDTCD) for synchronous b...
An integrated synchronous buck converter, designed in a 0.18-μm high-voltage CMOS technology, is ana...
With the rapid development of system-on-chip integration and continuously scaling-down power supply,...
Abstract—This work is about the analysis of dead time variation on switching losses in a Zero Voltag...