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A majority-logic device using an irreversible single-electron box

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TLDR
The gate device is simple in structure and powerful in terms of implementing digital functions with a small number of devices, which will enable the device to contribute to the development of single-electron integrated circuits.
Abstract
We describe a majority-logic gate device suitable for use in developing single-electron integrated circuits. The device consists of a capacitor array for input summation and an irreversible single-electron box for threshold operation. It accepts three binary inputs and produces a corresponding output, a complementary majority-logic output, by using the change in its tunneling threshold caused by the input signals; it produces a logical 1 output if two or three of the inputs are logical 0 and a logical 0 output if two or three of the inputs are logical 1. We combined several of these gate devices to form subsystems, a shift register and a full adder, and confirmed their operation by computer simulation. The gate device is simple in structure and powerful in terms of implementing digital functions with a small number of devices. These superior features will enable the device to contribute to the development of single-electron integrated circuits.

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Magnonic logic circuits

TL;DR: The functional throughput of the magnonic logic gates is estimated and compared with the conventional transistor-based approach, offering a significant functional advantage over the traditional approach.
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A new quantum-dot cellular automata full-adder

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Spin Wave Magnetic NanoFabric: A New Approach to Spin-Based Logic Circuitry

TL;DR: In this article, a magnetic nanofabric is proposed for building reconfigurable spin-based logic circuits compatible with conventional electron-based devices, where a bit of information is encoded into the phase of the spin wave signal, making it possible to transmit information without the use of electric current and utilize wave interference for useful logic functionality.
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Spin Wave Magnetic NanoFabric: A New Approach to Spin-based Logic Circuitry

TL;DR: A magnetic nanofabric, which may provide a route to building reconfigurable spin-based logic circuits compatible with conventional electron-based devices, and its ability to realize logic gates with fewer devices than in CMOS-based circuits is described.
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Non-volatile magnonic logic circuits engineering

TL;DR: In this paper, the authors propose a concept of magnetic logic circuits engineering, which takes an advantage of magnetization as a computational state variable and exploits spin waves for information transmission, and present a library of logic gates consisting of magnetoelectric cells and spin wave buses providing 0 or π phase shifts.
References
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Journal ArticleDOI

Quantum Cellular Automata

TL;DR: In this article, the authors proposed a new paradigm for computing with cellular automata (CAS) composed of arrays of quantum devices, which is called edge driven computing (EDC), where input, output and power are delivered at the edge of the CA array only; no direct flow of information or energy to internal cells is required.
Journal ArticleDOI

Single Charge Tunneling: Coulomb Blockade Phenomena in Nanostructures

TL;DR: Averin et al. as discussed by the authors proposed a single charge tunneling method to transfer electrons one-by-one in low-Capacitance tunnel junctions, and applied it to semiconductor nanostructures.
Posted Content

On Quantum Cellular Automata

TL;DR: This work considers an approach to definition of a scheme with "history", valid for quantization both irreversible and reversible classical CA directly using local transition rules, using language of vectors in Hilbert spaces instead of C*-algebras.
Journal ArticleDOI

Majority Gate Networks

TL;DR: This paper presents methods for realizing simple threshold functions of n arguments by networks of k-input majority gates, where k≪n.
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