We propose a network of generalized Toffoli gates with multiple EXORs for the realization of reversible functions. If implemented as a quantum circuit, the cost of such gates is shown to be only marginally higher than the cost of a Toffoli gate with a single EXOR and the same number of controls. The main result is a regular synthesis procedure which allows for the creation of asymptotically opt...

Quantum calculation is displayed by quantum circuits. All the quantum operations are reversible so the quantum circuits can be manufactured utilizing reversible rationale entryways. Reversible processing is the rising innovation, its significant part is in the field of quantum figuring, optical registering, and plan of low power nano-circuits. The most as often as possible utilized computationa...

Synthesis of reversible logic circuits has gained great attention during the last decade. Various synthesis techniques have been proposed, some generate optimal solutions (in gate count) and are termed as exact, while others are scalable in the sense that they can handle larger functions but generate sub-optimal solutions. Although scalable synthesis is very much essential for circuit design, e...

The field of quantum computing is growing rapidly and there is a surprisingly large literature. Research in this area includes the design of quantum reversible circuits and developing quantum algorithms for the models of quantum computing. This paper is focused on representing quantum reversible gates in matrix form. In turn these matrices can be used to develop quantum circuits with help of K-...

A novel low power and Positive Feedback Adiabatic Logic (PFAL) combinational low power circuit is presented in this paper. The power consumption and general characteristics of the PFAL combinationallow power circuit arethen compared against two combinational low power circuit Efficient Charge Recovery Logic (ECRL), Conventional CMOS. The proposed PFAL combinational low power circuit design was ...

This paper studies synthesis and optimization of reversible circuits composed of Toffoli gates with negative and positive control lines. The proposed synthesis algorithm performs sorting among optimal implementations of certain functions called as essential functions to implement any reversible Boolean function. Essential functions comprise very small amount of all functions. For example, to im...

Reversible logic has become one of the promising research directions in low power dissipating circuit design in the past few years and has found its applications in low power CMOS design, cryptography, optical information processing and nanotechnology. This paper presents a novel and quantum cost efficient reversible full adder gate in nanotechnology. This gate can work singly as a reversible f...

We address the problem of test set generation and test set reduction, to first detect, and later localize faults occurring in reversible circuits. Reversible Computation has high promise of low power consumption. Some new fault models are first presented here. An explanation of the new fault models is made based on a physical realization representing the state of the art in the reversible CMOS ...

Quantum-dot cellular automata, is an extremely small size and a powerless nanotechnology. It is the possible alternative to current CMOS technology. Reversible QCA logic is the most important issue at present time to reduce power losses. This paper presents a novel reversible logic gate called the F-Gate. It is simplest in design and a powerful technique to implement reversible logic. A systema...

Reversible logic has attracted tremendous interest among the researchers in low power VLSI field due to their simple structure and improved energy efficiency. In this paper, the implementation of an 8-bit low power multiplier based on reversible gate technology is reported. The structure of the reversible gate multiplier consists of following components: the first part is the reversible partial...