Abstract—We propose a new fully reversible adiabatic logic, nMOS reversible energy recovery logic (nRERL), which uses nMOS transistors only and a simpler 6-phase clocked power. Its area overhead and energy consumption are smaller, compared with the other fully adiabatic logics. We employed bootstrapped nMOS switches to simplify the nRERL circuits. With the simula-tion results for a full adder, we confirmed that the nRERL circuit consumed substantially less energy than the other adiabatic logic circuits at low-speed operation. We evaluated a test chip implemented with 0.8- m CMOS technology, which included a chain of nRERL inverters integrated with a clocked power generator. The nRERL inverter chain of 2400 stages consumed the minimum energy...
We describe an adiabatic microprocessor implemented with a reversible logic, nRERL [1]. We employed...
We show that both 130 nm and 65 nm technologies are suitable for reversible computation
This paper deals with design opportunities of CMOS based reversible logic circuits employing adiabat...
We propose a new fully reversible adiabatic logic, nMOS reversible energy recovery logic (nRERL), w...
We describe the design of an nRERL microprocessor for ultra-low-energy applications. nRERL (nMOS Re...
For ultra-low-energy applications, hootstrapped reversible-energy-re cove^ logic (bRERL) is propose...
We proposed Reversible Energy Recovery Logic (RERL) using an 8-phase clocking scheme, which is a dua...
This paper presents a new family of logic gates for ultra low energy computing using pulsed power CM...
The authors propose a reversible energy recovery logic (RERL) circuit for ultra-low-energy consumpt...
Power consumption has become a critical concern in the design of digital CMOS circuits. While long b...
With the recent trend toward portable communication and computing, power dissipation has become one ...
In this paper, we describe an energy-efficient carrylookahead adder using reversible energy recover...
With the growing technology and markets demand necessitated the immediacy efforts in the field of de...
Adiabatic or energy recovery circuit design is a relatively new method to implement adiabatic switch...
A simpler reversible energy recovery logic is proposed, called feedback RERL, which is based on the ...
We describe an adiabatic microprocessor implemented with a reversible logic, nRERL [1]. We employed...
We show that both 130 nm and 65 nm technologies are suitable for reversible computation
This paper deals with design opportunities of CMOS based reversible logic circuits employing adiabat...
We propose a new fully reversible adiabatic logic, nMOS reversible energy recovery logic (nRERL), w...
We describe the design of an nRERL microprocessor for ultra-low-energy applications. nRERL (nMOS Re...
For ultra-low-energy applications, hootstrapped reversible-energy-re cove^ logic (bRERL) is propose...
We proposed Reversible Energy Recovery Logic (RERL) using an 8-phase clocking scheme, which is a dua...
This paper presents a new family of logic gates for ultra low energy computing using pulsed power CM...
The authors propose a reversible energy recovery logic (RERL) circuit for ultra-low-energy consumpt...
Power consumption has become a critical concern in the design of digital CMOS circuits. While long b...
With the recent trend toward portable communication and computing, power dissipation has become one ...
In this paper, we describe an energy-efficient carrylookahead adder using reversible energy recover...
With the growing technology and markets demand necessitated the immediacy efforts in the field of de...
Adiabatic or energy recovery circuit design is a relatively new method to implement adiabatic switch...
A simpler reversible energy recovery logic is proposed, called feedback RERL, which is based on the ...
We describe an adiabatic microprocessor implemented with a reversible logic, nRERL [1]. We employed...
We show that both 130 nm and 65 nm technologies are suitable for reversible computation
This paper deals with design opportunities of CMOS based reversible logic circuits employing adiabat...