This paper presents an extremely low-voltage and low-power single-phase-clocking redundant-transition-free flip-flop (FF), named change-sensing FF (CSFF). By utilizing a local change-sensing scheme for eliminating redundant transitions of internal clocked nodes, CSFF does not consume any dynamic power when there is no data activity. Measurement results from a test chip fabricated in 40-nm CMOS technology show that CSFF saves up to 90% power dissipation at 5% data activity without additional transistors compared to the conventional transmission-gate FF (TGFF). CSFF consumes only 0.138 fJ/cycle, which is 84% lower than that of TGFF, at 0.4 V and 10% activity. In addition to the significant improvement in power and energy efficiencies, CSFF al...
[[abstract]]In this paper, a new low power and high speed CMOS double-edge triggered flip-flop (DETF...
Performance slack in IoT applications is routinely exploited in sensor nodes to minimize power by ag...
A new flip-flop is presented in which power dissipation is reduced by deactivating the clock signal ...
In this paper, a flip-flop (FF) that minimizes the transition of internal nodes by using a dual chan...
In this paper, we propose a low-overhead solution to ensure contention-free data retention in clock-...
In this paper, we propose an 18-transistor true-single-phase-clock (TSPC) flip-flop (FF) with static...
In this paper, we propose an 18-transistor (18T) True-Single-Phase-Clock (TSPC) Flip-Flop (FF) with ...
The main purpose of this project was to design low power and high performance flip-flop. This was be...
AbstractIn this paper, a novel low power adaptive pulse triggered flip-flop (PTFF) featuring exclusi...
To date, most studies focus on complex designs to realize offset cancelation characteristics in nonv...
The paper presents two gated flip-flops aimed at low-power applications. The proposed flip-flops use...
This dissertation presents a new systematic approach to flip-flop design using Internal Clock Gating...
Flip-flops are essential building blocks of sequential digital circuits, but typically occupy a subs...
Two novel low power flip-flops are presented in the paper. Proposed flip-flops use new gating techni...
[[abstract]]In this paper, a new low power and high speed CMOS double-edge triggered flip-flop (DETF...
Performance slack in IoT applications is routinely exploited in sensor nodes to minimize power by ag...
A new flip-flop is presented in which power dissipation is reduced by deactivating the clock signal ...
In this paper, a flip-flop (FF) that minimizes the transition of internal nodes by using a dual chan...
In this paper, we propose a low-overhead solution to ensure contention-free data retention in clock-...
In this paper, we propose an 18-transistor true-single-phase-clock (TSPC) flip-flop (FF) with static...
In this paper, we propose an 18-transistor (18T) True-Single-Phase-Clock (TSPC) Flip-Flop (FF) with ...
The main purpose of this project was to design low power and high performance flip-flop. This was be...
AbstractIn this paper, a novel low power adaptive pulse triggered flip-flop (PTFF) featuring exclusi...
To date, most studies focus on complex designs to realize offset cancelation characteristics in nonv...
The paper presents two gated flip-flops aimed at low-power applications. The proposed flip-flops use...
This dissertation presents a new systematic approach to flip-flop design using Internal Clock Gating...
Flip-flops are essential building blocks of sequential digital circuits, but typically occupy a subs...
Two novel low power flip-flops are presented in the paper. Proposed flip-flops use new gating techni...
[[abstract]]In this paper, a new low power and high speed CMOS double-edge triggered flip-flop (DETF...
Performance slack in IoT applications is routinely exploited in sensor nodes to minimize power by ag...
A new flip-flop is presented in which power dissipation is reduced by deactivating the clock signal ...