Improved quantum secret sharing scheme based on GHZ states

Mingming Wang, Zhiguo Qu, Lin-Ming Gong
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引用次数: 2

Abstract

With the rapid progress of quantum cryptography, secret sharing has been developed in the quantum setting for achieving a high level of security, which is known as quantum secret sharing (QSS). The first QSS scheme was proposed by Hillery et al. in 1999 [Phys. Rev. A, Vol. 59, p.1829 (1999)] based on entangled Greenberger-Horne-Zeilinger (GHZ) states. However, only 50% of the entangled quantum states are effective for eavesdropping detection and secret splitting in the original scheme. In this paper, we introduce a possible method, called measurement-delay strategy, to improve the qubit efficiency of the GHZ-based QSS scheme. By using this method, the qubit efficiency of the improved QSS scheme can reach 100% for both security detection and secret distribution. The improved QSS scheme can be implemented experimentally based on current technologies.
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基于GHZ态的改进量子秘密共享方案
随着量子密码学的飞速发展,为了实现高水平的安全,在量子环境中出现了秘密共享,即量子秘密共享(QSS)。第一个QSS方案是由Hillery等人在1999年提出的。Rev. A,第59卷,1829页(1999)]基于格林伯格-霍恩-塞林格(GHZ)纠缠态。然而,在原始方案中,只有50%的纠缠量子态能够有效地进行窃听检测和秘密分裂。在本文中,我们引入了一种可能的方法,称为测量延迟策略,以提高基于ghz的QSS方案的量子比特效率。采用该方法,改进后的QSS方案在安全检测和秘密分发方面的量子比特效率均可达到100%。改进的QSS方案可以在现有技术的基础上进行实验实现。
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