Based on Quantum Spin-Based Computing Architecture

Jincheng Zhang

Published Sep 5, 2026• 0 citations

Abstract

This paper explores a novel computing architecture predicated on the unique properties of quantum spins. Traditional quantum computing architectures face challenges related to coherence, scalability, and control complexity. We propose a framework leveraging the intrinsic advantages of spin systems – their inherent robustness against environmental noise, their ability to represent information in multiple states simultaneously, and the potential for highly precise control – to construct a more efficient and reliable computing platform. The core of this architecture revolves around manipulating and correlating quantum spins to perform computations. We detail key aspects including spin initialization, coherent manipulation protocols, and measurement strategies. This approach offers a promising alternative to existing designs, potentially mitigating some of the significant hurdles in achieving practical quantum computation. The proposed architecture is fundamentally different in its approach, offering a new computational paradigm based on exploiting the full potential of quantum spin dynamics.

DOI: 10.5281/zenodo.22315464

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