AbstractIn this paper, we propose a low-power true single-phase-clock (TSPC) based domino logic circuit design. Compared to using three clock transistors in the conventional TSPC-based scheme, the proposed circuit only requires two transistors. As a result, the clock load capacitance is reduced, leading to low power consumption in the clock distribution network. A keeper design to solve charge sharing is also demonstrated. Simulation results using 90nm and 45nm CMOS technologies are provided and iscussed, respectively, which illustrate power saving as compared to conventional design not only when the input logic is active but also when the input logic is held to zero
The XOR gate plays an important role in digital system like arithmetic circuits and encryption circu...
The tremendous success of the low-power designs of VLSI circuits over the past 50 years has signific...
In this paper we propose two buffer circuits for footed domino logic circuit. It minimizes redundant...
In this paper, we propose a low-power true single-phase-clock (TSPC) based domino logic circuit desi...
AbstractIn this paper, we propose a low-power true single-phase-clock (TSPC) based domino logic circ...
In this paper, a new technique of power reduction in CMOS domino logic is proposed. The proposed tec...
At the present time, in integrated circuit technology CMOS, low power design is an important subject...
Dynamic logic style is used in high performance circuit design because of its fast speed and less tr...
Abstract — A significant amount of the total power in highly synchronous systems gets dissipated ove...
The dynamic circuits are supposed to offer superior speed and low power dissipation over static CMOS...
Abstract: Reduction of propagation delay is very important for high speed applications. This paper g...
Leakage power and propagation delay are the two major challenges in designing CMOS VLSI circuits, in...
The dynamic circuits are supposed to offer superior speed and low power dissipation over static CMOS...
Abstract – Four different dynamic circuit techniques are proposed in this paper for lowering the act...
Abstract — We present a technique, termed clockgenerating (CG) domino, for improving dual-output dom...
The XOR gate plays an important role in digital system like arithmetic circuits and encryption circu...
The tremendous success of the low-power designs of VLSI circuits over the past 50 years has signific...
In this paper we propose two buffer circuits for footed domino logic circuit. It minimizes redundant...
In this paper, we propose a low-power true single-phase-clock (TSPC) based domino logic circuit desi...
AbstractIn this paper, we propose a low-power true single-phase-clock (TSPC) based domino logic circ...
In this paper, a new technique of power reduction in CMOS domino logic is proposed. The proposed tec...
At the present time, in integrated circuit technology CMOS, low power design is an important subject...
Dynamic logic style is used in high performance circuit design because of its fast speed and less tr...
Abstract — A significant amount of the total power in highly synchronous systems gets dissipated ove...
The dynamic circuits are supposed to offer superior speed and low power dissipation over static CMOS...
Abstract: Reduction of propagation delay is very important for high speed applications. This paper g...
Leakage power and propagation delay are the two major challenges in designing CMOS VLSI circuits, in...
The dynamic circuits are supposed to offer superior speed and low power dissipation over static CMOS...
Abstract – Four different dynamic circuit techniques are proposed in this paper for lowering the act...
Abstract — We present a technique, termed clockgenerating (CG) domino, for improving dual-output dom...
The XOR gate plays an important role in digital system like arithmetic circuits and encryption circu...
The tremendous success of the low-power designs of VLSI circuits over the past 50 years has signific...
In this paper we propose two buffer circuits for footed domino logic circuit. It minimizes redundant...