[[abstract]]New CMOS differential logic circuits, called asynchronous latched CMOS differential logic (ALCDL) circuits, are proposed and analyzed. The ALCDL can implement a complex function in a single gate and achieve high operation speed without DC power dissipation. New CMOS differential latches, which can be used to prevent extra transitions and reduce the power dissipation, are also proposed. A new clocking scheme is designed by locally using the ALCDL circuits and the entire system is synchronized to a single global clock. As compared to the conventional true-single-phase clock system, the loading of the global clock line and transient noise induced by precharge operation can be largely reduced. Simulation results show that the new cl...
Power consumption is always the key problem for the digital circuit design. Also, information leaked...
New dynamic, semistatic, and fully static single-clock CMOS latches and flipflops are proposed. By r...
With an ever-decreasing minimum feature size, integrated circuits have more transistors, run faster...
[[abstract]]A family of new logic circuits, called true-single-phase all-N-logic differential logic ...
We explore the potential for extremely high asynchronous logic performance in CMOS and GaAs dynamic ...
[[abstract]]A CMOS differential logic, called the latched CMOS differential logic (LCDL), is propose...
[[abstract]]In this paper, an All-N-Block true single phase clocking logic(ANTSPC) for high operatio...
For a few decades, CMOS has been well known for a quite efficient design methodology. With its uniqu...
This thesis pertains to the design of a digital signal processor (DSP) with emphasis on lowpower for...
A new differential static CMOS logic (DSCL) family is devised. The new circuit is fully static, maki...
Higher speed and better saving of energy at low voltage can be gain simultaneously by adopting the d...
Higher speed and better saving of energy at low voltage can be gain simultaneously by adopting the d...
Abstract — We present a design technique for implementing asynchronous ALUs with CMOS domino logic a...
There is a wide selection of flip-flops in the literature. Many contemporary microprocessors selecti...
For high performance designs, dynamic logic techniques have to be considered due to the promising hi...
Power consumption is always the key problem for the digital circuit design. Also, information leaked...
New dynamic, semistatic, and fully static single-clock CMOS latches and flipflops are proposed. By r...
With an ever-decreasing minimum feature size, integrated circuits have more transistors, run faster...
[[abstract]]A family of new logic circuits, called true-single-phase all-N-logic differential logic ...
We explore the potential for extremely high asynchronous logic performance in CMOS and GaAs dynamic ...
[[abstract]]A CMOS differential logic, called the latched CMOS differential logic (LCDL), is propose...
[[abstract]]In this paper, an All-N-Block true single phase clocking logic(ANTSPC) for high operatio...
For a few decades, CMOS has been well known for a quite efficient design methodology. With its uniqu...
This thesis pertains to the design of a digital signal processor (DSP) with emphasis on lowpower for...
A new differential static CMOS logic (DSCL) family is devised. The new circuit is fully static, maki...
Higher speed and better saving of energy at low voltage can be gain simultaneously by adopting the d...
Higher speed and better saving of energy at low voltage can be gain simultaneously by adopting the d...
Abstract — We present a design technique for implementing asynchronous ALUs with CMOS domino logic a...
There is a wide selection of flip-flops in the literature. Many contemporary microprocessors selecti...
For high performance designs, dynamic logic techniques have to be considered due to the promising hi...
Power consumption is always the key problem for the digital circuit design. Also, information leaked...
New dynamic, semistatic, and fully static single-clock CMOS latches and flipflops are proposed. By r...
With an ever-decreasing minimum feature size, integrated circuits have more transistors, run faster...