Differential CMOS edge-triggered flip-flop basedon clock racing
Y. Moisiadis, I. Bouras
Abstract
Y. Moisiadis, I. Bouras
Abstract
A differential CMOS edge-triggered flip-flop is proposed that employs a pair of cross-coupled inverters, providing fully static operation. The edge-triggering operation is achieved by a narrow pulse, produced by the clock signal and its inverted delayed version. The proposed flip-flop exhibits significant power savings of up to 25%, when compared with other static differential flip-flop circuits, maintaining its speed advantage for different power supply voltages and data activity rates. It also requires only 12 transistors resulting in a reduced transistor count. Moreover, unlike the existing differential circuits, it has the ability to operate under a reduced swing clock signal, without static power dissipation.
OpenAlex reports 10 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
A differential CMOS edge-triggered flip-flop is proposed that employs a pair of cross-coupled inverters, providing fully static operation. The edge-triggering operation is achieved by a narrow pulse, produced by the clock signal and its inverted delayed version. The proposed flip-flop exhibits significant power savings of up to 25%, when compared with other static differential flip-flop circuits, maintaining its speed advantage for different power supply voltages and data activity rates. It also requires only 12 transistors resulting in a reduced transistor count. Moreover, unlike the existing differential circuits, it has the ability to operate under a reduced swing clock signal, without static power dissipation.
Key concepts: Flip-flop, Signal edge, CMOS, Clock signal, Transistor, Electronic engineering, Electronic circuit, Enhanced Data Rates for GSM Evolution