In this paper, we propose Boost Logic, a logic family which relies on voltage scaling, gate overdrive and energy recovery techniques to achieve high energy efficiency at frequencies in the GHz range. The key feature of our design is the use of an energy recovering “boost ” stage to provide an efficient gate overdrive to a highly voltage scaled logic at near threshold supply voltage. We have evaluated our logic family using post-layout simulation of an 8-bit pipelined array multiplier in a ¢¤£¦¥¨§� © m CMOS process with ���� � =340mV. At 1.6GHz and a 1.3V supply voltage, the Boost multiplier dissipates 8.11pJ per computation. Comparing results from post-layout simulations of boost and voltage-scaled conventional multipliers, our proposed log...
Positive Feedback Adiabatic Logic (PFAL) shows the lowest energy dissipation among adiabatic logic f...
This paper presents a new family of logic gates for ultra low energy computing using pulsed power CM...
Power management is essential in state-of-the-art many-core processor and system-on-chip designs due...
Voltage scaling has diminished with each advancement in process technologies, making power dissipati...
Large digital chips use a significant amount of energy to distribute a multi-GHz clock. By dischargi...
Power dissipation is a pressing problem for digital semiconductor technology. One promising power-re...
Diminishing voltage scaling trends in modern process technology have resulted in the increased impor...
We proposed Reversible Energy Recovery Logic (RERL) using an 8-phase clocking scheme, which is a dua...
Large digital chips use a significant amount of energy to distribute a multi-GHz clock. By dischargi...
Inter- and intra-chip connections have become the new challenge to enable the scaling of computing s...
In this paper, we describe an energy-efficient carrylookahead adder using reversible energy recover...
Abstract—Dynamic logic families that rely on energy recovery to achieve low energy dissipation contr...
As the semiconductor roadmap reaches smaller feature sizes and the end of Dennard Scaling, design go...
Abstract: This paper presents an adiabatic logic family called positive feedback adiabatic logic cir...
Thesis (Ph. D.)--University of Rochester. Department of Electrical and Computer Engineering, 2016.Po...
Positive Feedback Adiabatic Logic (PFAL) shows the lowest energy dissipation among adiabatic logic f...
This paper presents a new family of logic gates for ultra low energy computing using pulsed power CM...
Power management is essential in state-of-the-art many-core processor and system-on-chip designs due...
Voltage scaling has diminished with each advancement in process technologies, making power dissipati...
Large digital chips use a significant amount of energy to distribute a multi-GHz clock. By dischargi...
Power dissipation is a pressing problem for digital semiconductor technology. One promising power-re...
Diminishing voltage scaling trends in modern process technology have resulted in the increased impor...
We proposed Reversible Energy Recovery Logic (RERL) using an 8-phase clocking scheme, which is a dua...
Large digital chips use a significant amount of energy to distribute a multi-GHz clock. By dischargi...
Inter- and intra-chip connections have become the new challenge to enable the scaling of computing s...
In this paper, we describe an energy-efficient carrylookahead adder using reversible energy recover...
Abstract—Dynamic logic families that rely on energy recovery to achieve low energy dissipation contr...
As the semiconductor roadmap reaches smaller feature sizes and the end of Dennard Scaling, design go...
Abstract: This paper presents an adiabatic logic family called positive feedback adiabatic logic cir...
Thesis (Ph. D.)--University of Rochester. Department of Electrical and Computer Engineering, 2016.Po...
Positive Feedback Adiabatic Logic (PFAL) shows the lowest energy dissipation among adiabatic logic f...
This paper presents a new family of logic gates for ultra low energy computing using pulsed power CM...
Power management is essential in state-of-the-art many-core processor and system-on-chip designs due...