##基于量子纠错码的量子存储器设计

Jincheng Zhang

Published Sep 2, 2026• 0 citations

Abstract

This paper presents a novel design for a quantum storage system based on quantum error-correcting codes. The primary goal is to enhance the storage capacity and reliability of quantum storage devices, which are fundamental to the advancement of quantum computing. The proposed architecture leverages the principles of quantum error correction, specifically utilizing low-density parity-check (LDPC) codes, to mitigate the effects of decoherence and other sources of quantum noise. The design incorporates redundancy through the encoding of multiple logical qubits within a physical qubit ensemble, enabling the detection and correction of errors without compromising the integrity of the stored quantum information. The performance analysis demonstrates the potential for significant improvements in storage fidelity and the ability to store a larger number of quantum bits compared to traditional, uncorrected quantum storage approaches. The design addresses key challenges in quantum storage, including error mitigation and data preservation, contributing to the realization of scalable and reliable quantum computing systems.

DOI: 10.5281/zenodo.22245696

Related papers

##基于量子纠错码的分布式存储系统设计

Jincheng Zhang

This paper proposes a design for a fault-tolerant distributed storage system leveraging quantum error-correcting codes. The core claim centers on using these codes to significantly enhance the reliability of data storage in a distributed environment. The proposed system employs quantum error-correcting codes for both encoding and decoding, effectively mitigating data corruption and ensuring data integrity. The novelty lies in the direct application of quantum error correction within a distributed storage architecture, addressing the inherent vulnerabilities of traditional storage systems to quantum decoherence and errors. This design offers a pathway towards robust data preservation in quantum computing scenarios. The system utilizes a layered approach, combining classical network infrastructure with quantum error correction protocols to achieve optimal performance. Key performance metrics such as error correction rate, storage overhead, and network latency are analyzed. The system's architecture is scalable and adaptable to varying storage requirements.

Sep 3, 20260 citations

Based on Quantum Error Correction Codes: A Distributed Storage System

Jincheng Zhang

This paper proposes a novel approach to distributed storage system design utilizing quantum error correction (QEC) codes. The core claim is that incorporating QEC allows for robust data redundancy within a distributed system, significantly enhancing data reliability and security against various forms of noise and corruption. The proposed mechanism involves encoding data using selected QEC codes before distribution across the network, effectively mitigating the impact of quantum noise. This work outlines the fundamental principles, key considerations, and potential challenges associated with implementing such a system. Specifically, we explore different QEC codes and their suitability for distributed storage, discuss the overhead associated with encoding and decoding, and address scalability concerns. The research presents a theoretical framework for a QEC-based distributed storage system, demonstrating the potential for significantly improved data preservation compared to traditional redundancy schemes. The system's architecture emphasizes efficient data distribution and retrieval while maintaining the integrity of encoded data. This approach offers a pathway toward building highly resilient storage solutions for applications demanding high data availability and security, particularly in quantum computing environments.

Aug 31, 20260 citations

##基于量子纠错码的分布式计算架构

Jincheng Zhang

This paper proposes a novel distributed computing architecture leveraging quantum error-correcting codes for robust and scalable quantum computation. The core idea is to utilize the inherent error correction capabilities of these codes within a distributed setting, mitigating the challenges associated with maintaining qubit coherence over long distances and facilitating large-scale quantum processing. We detail a framework where multiple quantum processors, interconnected via quantum channels, employ a specific quantum error-correcting code to encode and decode quantum information. This approach directly addresses the key limitations of current quantum computing architectures, offering a pathway towards achieving fault-tolerant quantum computation. The architecture is designed to enhance resilience against noise and errors, a critical factor for practical quantum computation. The theoretical framework presented outlines the key components and operational principles, focusing on the encoding and decoding process using a chosen quantum error-correcting code. We provide a mathematical analysis of the system, detailing the redundancy introduced by the code and the impact on computational complexity. The architecture's potential for scaling to larger quantum systems and its implications for various quantum algorithms are discussed. This work represents a significant step towards realizing the full potential of distributed quantum computing.

Aug 31, 20260 citations

##基于量子纠错码的容错硬件设计

Jincheng Zhang

This paper presents a hardware design leveraging quantum error correction (QEC) codes for enhanced fault tolerance in quantum computing. Current approaches to QEC primarily rely on software-based correction, limiting the practical implementation of robust quantum systems. This design proposes an architecture where QEC codes are directly integrated into the hardware circuit design, capitalizing on the inherent error-correcting capabilities of the codes themselves. The core mechanism involves encoding quantum information using specific QEC codes, performing logical operations, and then decoding the results to mitigate errors. This approach aims to significantly improve the accuracy and reliability of quantum computations by directly addressing errors at the hardware level. The design focuses on practical considerations for implementing QEC codes within a physical quantum system, exploring key challenges and potential solutions. This work contributes to the development of more reliable and scalable quantum computing platforms.

Sep 2, 20260 citations

Quantum Error Correction Based Distributed Storage System

Jincheng Zhang

This paper investigates the design and implementation of a distributed storage system leveraging quantum error correction (QEC) techniques. Traditional distributed storage systems face significant challenges in maintaining data integrity when confronted with high error rates, particularly in environments susceptible to quantum noise. This research proposes a system architecture that encodes data into quantum states and employs QEC codes to provide robust error correction, thereby achieving high fault tolerance. The core claim is the utilization of QEC to realize a high-tolerance distributed storage system. The core mechanism involves encoding data into quantum states and utilizing quantum error correction codes for error protection, enabling reliable storage and transmission. The novelty lies in addressing the reliability issues inherent in conventional distributed storage systems within error-prone conditions. This work outlines the fundamental principles, key components, and potential challenges associated with such a system, offering a pathway toward resilient quantum data storage.

Sep 3, 20260 citations

##基于多量子比特的量子纠错码设计

Jincheng Zhang

This paper presents a novel design for a multi-qubit quantum error correction code, aimed at effectively correcting errors in quantum information. The core of the design leverages the entanglement properties inherent in multi-qubit systems to construct a code capable of achieving fault-tolerant quantum computation. The proposed code utilizes a layered approach, employing a series of parity checks across multiple entangled qubits. We formally define the code's parameters, including the code rate, distance, and minimum distance, and outline the encoding and decoding procedures. The theoretical analysis demonstrates the code's ability to correct errors up to a certain threshold, illustrating its potential for enhancing the reliability of quantum computations. The research contributes to the critical advancement of quantum error correction, a cornerstone technology for realizing scalable and robust quantum computers. The key elements of the design are presented, focusing on the mathematical framework and operational protocols.

Aug 31, 20260 citations